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2026 3rd International Conference on Machine Learning and Neural Networks (MLNN 2026) will be held in Chengdu, China, from April 10 to 12, 2026.
Conference Website: https://ais.cn/u/FZji6f
---Call For Papers---
The topics of interest for submission include, but are not limited to:
◕ Machine Learning Algorithms and Techniques
·Supervised and Unsupervised Learning: Methods and Applications
·Deep Learning Architectures and Their Applications
·Reinforcement Learning for Autonomous Systems and Robotics
·Transfer Learning and Domain Adaptation
·Evolutionary and Hybrid Algorithms for Machine Learning Optimization
·Semi-supervised Learning and Meta-learning Approaches
·Ensemble Learning and Online Learning for Dynamic Data
·Probabilistic Models: Bayesian Networks and Markov Models
·Computational Complexity and Optimization in Machine Learning
·Real-world Applications of Machine Learning in Industry and Society
◕ Neural Networks and Deep Learning
·Convolutional and Recurrent Neural Networks in Computer Vision and Time Series
·Generative Models: GANs and Autoencoders in Data Generation and Dimensionality Reduction
·Neural Networks in Natural Language Processing and Speech Recognition
·Deep Reinforcement Learning for Robotics, Automation, and Network Optimization
·Neural Networks in Healthcare: Medical Imaging, Diagnostics, and Anomaly Detection
·Neural Networks for Financial Forecasting and Cybersecurity
·Transfer Learning and Few-shot Learning in Deep Learning
·Deep Learning for Recommender Systems and Data Augmentation
◕Machine Learning and Neural Networks in Communication Systems
·Machine Learning for Wireless Communication and 5G Networks
·AI-based Optimization and Resource Allocation in Communication Networks
·Deep Learning for Signal Processing, Channel Estimation, and Spectrum Management
·Cognitive Radio Networks and Machine Learning for Dynamic Spectrum Access
·Neural Networks for MIMO Systems, Beamforming, and Network Security
·Machine Learning for Network Traffic Prediction and Intrusion Detection
·AI Techniques for Quality of Service (QoS) and Quality of Experience (QoE) in Networks
·Data-driven Approaches for IoT and Autonomous Communication Systems
·Deep Reinforcement Learning for Communication Network Optimization
---Publication---
All papers, both invited and contributed, will be reviewed by two or three expert reviewers from the conference committees. After a careful reviewing process, all accepted papers of MLNN 2026 will be published in ACM International Conference Proceedings Series, which will be archived in the ACM Digital Library, and indexed by EI Compendex, Scopus.
---Important Dates---
Full Paper Submission Date: February 6, 2026
Registration Deadline: March 27, 2026
Final Paper Submission Date: March 27, 2026
Conference Dates: April 10-12, 2026
---Paper Submission---
Please send the full paper(word+pdf) to Submission System:
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publication is waiver off ?
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"Hi,I am looking to conduct research on how Machine Learning /Deep Learning is evolving to secure modern computer networks. Are there any specific sub-fields (like Adversarial ML or Federated Learning for IDS) that you believe are currently under-researched? I would appreciate any pointers toward recent literature or unsolved problems in this area."
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Emerging Research Gaps in AI-Based Network Security (2026):
  1. Robustness Against Adversarial AI Attacks AI models for intrusion detection remain vulnerable to evasion, poisoning, and adversarial inputs.
  2. Explainable & Trustworthy AI (XAI) for Security Decisions Lack of transparency limits adoption in critical networks and automated response systems.
  3. Security of Autonomous AI Agents in Networks Agentic AI can act as privileged insiders with minimal oversight, creating new attack surfaces.
  4. Multi-Agent & Swarm Attack/Defense Modeling Coordinated AI agents can collude or launch distributed attacks—still poorly understood.
  5. AI Governance, Accountability & Human-in-the-Loop Control Organizations lack frameworks to validate automated decisions and ensure responsibility.
  6. Visibility of AI Activities in Networks (“AI Visibility Gap”) Difficulty tracking which AI tools access what data and systems.
  7. Security of AI Supply Chains & Third-Party Integrations Compromise of one AI component can expose entire enterprise networks.
  8. AI-Driven Zero-Touch / Self-Managing Network Security Fully autonomous protection systems face reliability and adversarial risks.
  9. Protection of Training Data & Model Integrity Data poisoning and model theft remain major unsolved problems.
  10. Security for 6G, IoT, and Cyber-Physical Systems Using AI Massive scale and heterogeneity introduce new vulnerabilities not covered by current methods.
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A maximum of about 5%. Is that a correct way to understand it?
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The 2-5% improvement range is actually somewhat conservative based on recent research. The gains from RLHF (Reinforcement Learning from Human Feedback) or other RL approaches on top of SFT vary significantly depending on several factors:
Task complexity matters a lot. For reasoning-heavy tasks like math problem solving or complex instruction following, RL improvements can be more substantial - sometimes reaching 10-15% in specific benchmarks. The benchmarks shown in the previous answer (from DeepSeek papers) demonstrate this variability well.
For simpler generation tasks or when the SFT dataset is already very high quality and diverse, RL might only add 2-3% improvement. This makes sense because there's less room for policy optimization when the model is already performing well.
The real value of RL isn't just the percentage improvement though. It's about alignment with human preferences on dimensions that are hard to capture in supervised data alone - things like helpfulness, harmlessness, truthfulness, and avoiding specific failure modes. These qualitative improvements don't always show up cleanly in accuracy metrics but make a huge practical difference.
One nuance worth mentioning: the gains also depend heavily on the RL algorithm used. RLHF with PPO, DPO (Direct Preference Optimization), or newer methods like RLAIF can produce quite different results. DPO, for instance, often achieves similar results to PPO-based RLHF but with simpler training dynamics.
So yes, 2-5% is a reasonable ballpark for many scenarios, but it's more accurate to think of it as task and implementation-dependent, with a range of 2-15% depending on these factors.
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Is there a significant performance difference between LLMs using a 'think mode' (like Chain-of-Thought) and those using a 'non-think mode' (direct prompting) for short text generation or short text classification tasks?
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In think mode, LLM generates an image by analysing a prompt step by step, like a human brain. In Non-Think mode, LLM generates an immediate response from what it has already learned.
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Can training solely with SFT (without RL) using TB-PB level (high-quality) data solve the hallucination problem in LLMs?
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In DeepSeek-R1, the post-training dataset sizes are: SFT = 800K samples, RL = 1.46M samples.
The paradigm has shifted.
The data-coverage approach is not viable for LLMs, as the scope requiring coverage is simply too vast.
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Theoretically
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Even though, it is theoretically, I do not think LLM hallucination can be solved 100%. But, based on my knowledge, understanding and experience and also as stated by different scholars, I can say that it can be minimized up to 70% - 90%.
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2026 International Conference on Condensed Matter Physics and Artificial Intelligence (CMPAI 2026) will be held on April 17-19, 2026 in San Francisco, USA/ Hybrid.
𝗖𝗼𝗻𝗳𝗲𝗿𝗲𝗻𝗰𝗲 𝗪𝗲𝗯𝘀𝗶𝘁𝗲: https://www.aischolar.com/conference/cmpai2026?invite=researchgate
---𝗖𝗮𝗹𝗹 𝗙𝗼𝗿 𝗣𝗮𝗽𝗲𝗿𝘀---
The topics of interest for submission include, but are not limited to:
AI in Superconductivity and Magnetism
Design and optimization of superconducting materials
Prediction of magnetic properties and new phases
AI-assisted study of superconducting and magnetic mechanisms
Machine learning applications in magnetic quantum materials
Intelligent experimental data processing and analysis
Smart control for superconducting devices
AI in Low-dimensional and Topological Physics
Identification and classification of topological materials
Electronic state analysis in low-dimensional systems
Topological quantum computing and information processing
Dynamics simulations of low-dimensional heterostructures
Detection of topological phases and experimental data analysis
AI in Non-equilibrium and Statistical Physics
Simulations of non-equilibrium dynamics and phase transitions
Modeling of many-body system dynamics
Analysis of thermal transport and energy conversion
Theoretical modeling of non-equilibrium systems
Deep learning in complex dissipative systems
Integration of intelligent simulations with experimental data
Intelligent Methods in Computational and Materials Physics
AI-assisted electronic structure calculations
Multiscale materials simulations with machine learning
High-throughput materials screening and design
Analysis of defects and interfaces in electronic structures
Machine-learned potentials and accelerated simulations
AI research in energy materials
Other ...
---𝗦𝗽𝗲𝗮𝗸𝗲𝗿𝘀 (𝗜𝗻𝘁𝗲𝗻𝗱 𝘁𝗼 𝗶𝗻𝘃𝗶𝘁𝗲)---
Prof. Daowen Qiu, Sun Yat-sen University, China
Assoc. Prof. Siow Kim Shyong, The National University of Malaysia, Malaysia
---𝗣𝘂𝗯𝗹𝗶𝗰𝗮𝘁𝗶𝗼𝗻---
All papers, both invited and contributed, will be reviewed by two or three experts from the committees. After a careful reviewing process, all accepted full papers of CMPAI 2026 will be published in the conference proceedings and will be submitted to EI Compendex and Scopus for indexing.
---𝗜𝗺𝗽𝗼𝗿𝘁𝗮𝗻𝘁 𝗗𝗮𝘁𝗲𝘀---
Full Paper Submission Date: March 2, 2026
Registration Deadline: March 31, 2026
Final Paper Submission Date: March 31, 2026
Conference Dates: April 17-19, 2026
--- 𝗣𝗮𝗽𝗲𝗿 𝗦𝘂𝗯𝗺𝗶𝘀𝘀𝗶𝗼𝗻---
Please send the abstract or full paper(word+pdf) to Submission System:
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:)
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This question aims to identify which AI, ML, and DL models are most effective for detecting cyberattacks and anomalies in healthcare data and network environments. Healthcare systems generate sensitive data from sources such as EHRs, medical imaging systems, IoT-based medical devices, and cloud healthcare platforms, making them frequent targets of cyber threats.
Traditional security methods often fail to detect zero-day attacks, insider threats, and subtle data manipulation. Therefore, researchers increasingly rely on AI-driven detection models that can learn complex patterns from large and heterogeneous healthcare datasets.
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Multi-Layered Cryptographic Trust Reinforcement (MCTR): This framework combines hierarchical quantum-resistant cryptography, decentralized trust validation through blockchain, and AI-based anomaly detection, achieving a threat detection rate of 95-98% and a false positive rate below 2.5%.
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Suggest some rapid/fast publication SCIindexed journals in the area of deep learning
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  • International Journal of Computational Intelligence Systems (ISSN: 1875-6891)
  • APPLIED SOFT COMPUTING (ISSSN: 1568-4946)
  • International Journal on Artificial Intelligence Tools (ISSN: 0218-2130)
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Human intelligence is not based on generally accepted concepts, well-known laws\rules and logical connections. Instead of that, the intellect analyzes intuitive images via analogy, pursuing search of (!) alternatives, and more often among opposite still possible solutions and logically unrelated to generally accepted concepts, models, and rules.
Therefore, learning, reasoning, and clarifying parameters within well-known patterns based on well-known concepts, laws, rules, and logical connections cannot be a solution to a problem with elements of intelligence.
Language models are not acceptable as well to formalize the problem/task precisely because LLM imply by default a search of ready solutions among a huge array of data that are known LMs patterns for selection the solution.
Intelligence needs a different problem\task formal language that is not tied to well-known patterns, concepts and models, though only pursues the effective solving the problem\task.
Therefore, there is no need for large language models, neural network technologies, deep learning, giant databases, or the enormous energy of computers!
You can teach a parrot to speak and understand\even interpret human speech, and even solve a certain range of tasks within a template. But the parrot's intelligence is quite capable for solving elementary intellectual tasks and problems (!) of the parrot even without knowing the human language, and it does not require more energy than it needs to support the body, just like a human!
This means that the chosen areas of the AI's development are dead ends, diverting huge computational and human resources to useless demonstrations of the software product as impotent and limited in human cognition and intelligence.
We don't need AI as a navigator for databases of known data!
We don't need a chatterbox with databases and well-known solutions.
We don't need neural networks, we don't need deep learning, we don't need what is logical and lies on the open surface. Other criteria and parameters are needed to describe\formalize the components of the task, the conditions for their interaction, and the evaluation of the result. What is needed is not well-known statistics, but intellectual mathematics.
We need an "intelligent problem\task calculator" that can reveal an array of solutions (including those that were, could have been, and could not have been) while, after analyzing, propose by justifying, the most effective and unique solution.
And for this process of intellectual problem solving, it is not the human language that is needed, but the formal mathematical language of the computing intelligence.
For example: to divide 3 by 2, even with a calculator it is not necessary use a lot of energy, because it will use a mathematical language that is adequate to the task.
But then the task is to distribute three drivers/machinists into two trams/metro trains that must continuously and around the clock serve the movement of two vehicles, a simple arithmetic solution is not suitable.
On the other hand, an intelligent calculator should not rely on neither the multiplication table (as a built-in function) nor the use of routine addition operations and other well-known mathematical multiplication models that require learning a specific behavior pattern in performing sequential operations.
Otherwise, we spend huge resources with the "intelligence" index, and as a result, we end up with a talking browser based on databases and phrases, a graphomaniac and a buffoon like AI chatbot for everyday use.
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Dear Ms. Murthy, thank you very much for your opinion in the discussion and your support.
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is it possible to implement end to end handwritten recognizer based on classical time series and sequence modelling like Markov and probabilistic graphical modelling. this effort as a solution to set aside CNN deep learning based solution and to gain advantages of hardware requirements and also to benefit of faster processing time.
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In my opinion, an end-to-end handwritten recognition system built on classical probabilistic sequence modeling is both practical and theoretically sound, particularly for sequential data with strong temporal correlations. Its key strengths include strong model interpretability, low computational cost, reduced hardware requirements, and efficient inference enabled by dynamic programming methods such as Viterbi decoding and expectation–maximization. However, these models face notable limitations in processing high-dimensional perceptual data, as they rely on handcrafted features and offer limited representational capacity compared to deep learning systems, which results in weaker generalization to diverse handwriting styles, noise, and complex non-linear structures. As a result, although classical approaches are well-suited for real-time and resource-limited applications, they remain fundamentally constrained in scalability and accuracy relative to modern neural-based solutions
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Generally, pre-training data is on the TB-PB scale, while post-training data is on the MB-GB scale.
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The post-training dataset for DeepSeek-R1 comprises 800K Supervised Fine-Tuning (SFT) samples and 1.46M Reinforcement Learning (RL) samples.
This indicates a paradigm shift. The "data-cover" approach isn't viable for LLMs, because the scope of what needs to be covered is simply too vast.
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For LLM pre-training + post-training, using 10T Chinese data vs using 10T Chinese-English data—will the former perform better in Chinese?
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The post-training dataset for DeepSeek-R1 comprises 800K Supervised Fine-Tuning (SFT) samples and 1.46M Reinforcement Learning (RL) samples.
This indicates a paradigm shift. The "data-cover" approach isn't viable for LLMs, because the scope of what needs to be covered is simply too vast.
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Is it possible to surpass Chat LLMs in a specific domain by doing this?
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The post-training dataset for DeepSeek-R1 comprises 800K Supervised Fine-Tuning (SFT) samples and 1.46M Reinforcement Learning (RL) samples.
This indicates a paradigm shift. The "data-cover" approach isn't viable for LLMs, because the scope of what needs to be covered is simply too vast.
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For LLM post-training, can the RL-loss be split into two SFT training-steps: one training-step to minimize the loss on positive data, and another training-step to maximize the loss on negative data?
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Whether it's online RL or SFT on data collected from an RL process,
if the data is consistent at its core, the performance will almost certainly be identical.
The key is that you ultimately have to use the RL framework.
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2. Role of Deep Learning in Computer Vision | CNNs, Applications & Real-World Examples Explained
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The influence of deep learning on computer vision is apparent in a variety of applications. In the realm of image classification, models are capable of identifying objects or scenes, such as recognizing animals or landmarks. Object detection and segmentation allow systems to pinpoint and delineate multiple objects within an image, which is essential for applications like autonomous driving and medical imaging. Furthermore, face recognition, optical character recognition (OCR), pose estimation, and video comprehension illustrate the extensive capabilities of CNN-based vision systems. In practical scenarios, deep learning facilitates the operation of self-driving vehicles by detecting pedestrians, lanes, and traffic signs in real-time.
In the medical field, CNNs support radiologists in accurately identifying tumors in X-rays, MRIs, and CT scans. Security and biometric systems depend on face recognition for user authentication, while sectors such as retail and manufacturing implement vision systems for inventory management and quality control. Even common tools such as smartphone cameras, photo tagging features, and augmented reality applications are powered by computer vision technologies based on deep learning.
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The fact that public institutions, in order to increase efficiency (e.g., in enforcing fiscal law), rely on algorithms and models from Big Tech or private consulting firms, lead to informal and uncontrolled influence by the private sector on the direction and content of a country's economic and financial legislation, thereby undermining the democratic process and legislative sovereignty?
Dear Colleagues and Friends from RG,
This is a dilemma concerning the boundary between technology and power. Arguments in favor (Yes, it does) warn that if the AI model relied upon by the government is a product of a corporation, then the rules and optimizations embedded in that code become de facto new state regulations, even though they have not been voted on by parliament (so-called code as law). Tech corporations can thus shape the market to suit their own interests, which is contrary to sovereignty. Arguments against (No, it does not) claim that politicians retain ultimate control and can reject AI recommendations; AI is merely an analytical tool. Furthermore, the use of the best private models is necessary for efficiency, and this influence can be controlled through strict contracts and public audits of external algorithms.
What is your opinion on this topic?
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I invite you to discuss
Thank you very much. All the best!
I invite you to collaborate on research.
Best regards,
Dariusz Prokopowicz
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Dariusz Prokopowicz Dear Professor,
This is a very timely and important question, because in practice the boundary between “AI as a tool” and “AI as a new layer of law” is much thinner than it looks on paper.
In my view, yes – when public authorities rely heavily on AI systems developed and controlled by private companies, this does create a form of indirect influence on economic and financial law. It does not always mean that corporations are literally writing statutes, but they can end up shaping how those statutes work in real life, and over time this can feed back into how legislation is drafted and interpreted.
One way to look at it is through the difference between law-in-the-books and law-in-action. On paper, parliament passes tax laws, financial regulations, and enforcement rules. But in practice, if the tax authority’s risk scoring, audit selection, fraud detection, or benefit eligibility decisions are driven by proprietary AI systems, then those models are effectively determining who is scrutinized, who is let through, and which behaviors are rewarded or punished. That operational layer becomes the “real” economic law that citizens and firms experience. If that operational layer is a black box managed by a private vendor, then part of the state’s regulatory power has effectively migrated into private hands.
This influence does not require any malicious intent from companies. It is enough that they encode certain assumptions: what counts as risky behavior, which variables are considered relevant, what trade-off is acceptable between false positives and false negatives, which sectors are prioritized, and so on. These design choices directly shape the burden of regulation across different groups of taxpayers or firms. For example, a model that heavily weights easily observable variables might end up targeting small and medium enterprises more than large corporations with sophisticated tax planning, not because the law itself says so, but because that is how the algorithm works. Over time, these patterns can influence how ministries perceive the economy and where they think “the problems” are, which feeds into the next round of legislative reform.
At the same time, I would not say that democratic sovereignty disappears the moment a government uses private AI. Public authorities still have the legal competence to accept, reject, or modify the recommendations of any system. In theory, nothing prevents a ministry of finance from saying: we will use external models, but only under strict contractual conditions, with full documentation, access to source code where necessary, clear liability rules, and with the possibility of independent public oversight. In that sense, the decisive factor is not whether the AI is private or public, but whether the state retains enough knowledge, control, and bargaining power to treat AI as an instrument rather than as an opaque authority it must simply obey.
The problem is that, in practice, several structural asymmetries make genuine control difficult. First, there is a technical asymmetry: only a small number of large firms can build cutting-edge models, and public administrations often lack in-house expertise to properly evaluate or replicate those systems. That creates dependence. Second, there is an informational asymmetry: models are often protected as trade secrets, and even where governments have access, very few civil servants or judges have the time and skills to meaningfully inspect them. Third, there is a path dependence: once a particular proprietary system becomes deeply integrated into tax administration or financial supervision, replacing it is costly and risky. This lock-in means that, over time, the vendor’s design choices and update cycles quietly shape what is realistically possible within the law.
From the perspective of economic law, this matters because enforcement is not a neutral technical step; it is a key site where distributive choices are made. Who gets audited, when sanctions are imposed, how compliance costs are distributed between large and small actors – all of these have macroeconomic consequences. If private AI plays a central role in those decisions, then yes, there is a real risk that the normative center of gravity shifts away from democratic institutions towards the interests and assumptions of technology providers. Even if politicians formally retain the final say, they become dependent on analytical infrastructures that they did not design and do not fully understand.
That said, I do not think the correct response is to reject private AI altogether. Public institutions cannot realistically develop every advanced model internally, and refusing to use available technology would come at a real cost in terms of efficiency, fraud detection, and the ability to manage complex economies. The more constructive question is: under what legal and institutional conditions can governments use private AI without giving up legislative sovereignty?
There are a few elements that seem essential. First, there needs to be a clear legal requirement that automated systems used in core areas of economic and fiscal governance are explainable in human terms, at least to regulators, courts, and auditors. The state must be able to ask not only “what decision did the model make?” but “on what grounds?” Second, contracts with vendors should avoid deep lock-in and must ensure that the public authority can audit, contest, or even reconstruct the logic of the system if needed. Third, there should be a basic level of in-house expertise so that public institutions can critically evaluate external models and are not forced into a position of technological dependency. Finally, affected citizens and firms need legal avenues to challenge decisions that are heavily influenced by algorithms, which in turn pressures governments to understand and justify the tools they use.
If these conditions are met, private AI can function more like an advanced calculator or simulation environment: powerful, but ultimately subordinated to democratically defined goals and constraints. If they are not met, then you get the situation you are warning about, where the “code” that optimizes certain objectives (often efficiency, risk reduction, or revenue maximization) becomes a kind of hidden legislation, reshaping the economic order without going through open political debate.
AI developed by private companies does not automatically rewrite economic law, but it creates a significant channel through which private interests and technical assumptions can influence how that law is applied, interpreted, and gradually reformed. Whether this undermines democracy depends less on the technology itself and more on the regulatory framework, the capacity of the state, and the transparency of the relationship between public authorities and their private technology partners.
In that sense, we are not facing a purely technical issue, but a classic constitutional question: how does the state ensure that core public powers – taxation, regulation, allocation of risk – remain under public control, even when they are mediated by very complex and specialized digital infrastructures? This is exactly where more interdisciplinary research, of the kind you are inviting us to, is urgently needed.
Best regards,
Aftab Haider
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Does the LLM generative model require negative samples of reinforcement learning? Does removing low-quality data equate to adding negative samples?
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Large language models do not require explicit negative samples during training.
In pretraining, they learn via maximum likelihood estimation, and in RLHF they are guided by reward signals rather than negative examples.
Removing low-quality data improves data quality but does not equate to adding negative samples, as no explicit negative supervision is provided.
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What are the key advantages and limitations of using traditional machine learning (e.g., SVM, KNN) compared to deep learning (CNNs) for bone fracture classification in X-ray images, especially when dealing with limited or imbalanced datasets?
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Traditional machine learning methods such as SVM and KNN offer key advantages for bone fracture classification in X-ray images when datasets are limited or imbalanced. These methods require less data for training, are less prone to overfitting in small sample scenarios, and allow for explicit feature engineering—such as radiomics or edge detection—which can be tailored to highlight fracture-relevant image characteristics. SVMs, in particular, have demonstrated high accuracy and low computational cost in classifying bone pathology from X-ray images, making them suitable for real-time and resource-constrained settings.
However, the limitations of traditional machine learning include dependence on manual feature extraction, reduced ability to capture complex image patterns, and generally lower performance on large, heterogeneous datasets compared to deep learning approaches. These models may struggle with generalizability and robustness when faced with subtle or atypical fracture presentations.
Deep learning approaches, especially CNNs, excel in automatically learning hierarchical and spatial features directly from raw images, achieving superior accuracy and generalizability in large, diverse datasets. CNNs have consistently outperformed traditional methods and even human clinicians in fracture detection and classification tasks, particularly when sufficient annotated data is available. They are less reliant on manual feature engineering and can adapt to complex image variations.
The main limitations of deep learning in the context of limited or imbalanced datasets are the risk of overfitting, reduced performance on rare fracture types, and the need for substantial computational resources and expertise for model development and validation. Deep learning models may also be less interpretable, and their performance can degrade if the training data does not adequately represent the target population.
I'll leave some articles down below that might interest you.
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How can public institutions ensure the resilience and reliability of AI systems for economic and financial planning, given that they are based on data that can be deliberately falsified or manipulated by external entities (e.g., cybercriminals, hostile states, speculators) in order to trigger erroneous policy decisions (so-called data poisoning), without having to completely classify the information?
This is a critical issue of information security and data trust. Arguments in favor (Can be protected) claim that there are advanced cryptographic and modeling techniques (e.g., adversarial AI, federated learning) that allow for data integrity verification and rapid detection of manipulation, which is key to combating corruption and defending against foreign influence. Arguments against (Difficult to protect) warn that the more complex the AI model, the more difficult it is to detect subtle, deliberate data distortions (or manipulation of market signals to elicit a specific AI response), creating a new geostrategic weapon. By relying on AI, the state becomes extremely vulnerable to silent digital attacks, the effects of which can be catastrophic, as erroneous decisions are automatically put into effect.
What is your opinion on this topic?
Please reply
I invite you to discuss
Thank you very much. All the best!
I invite you to collaborate on research.
Best regards,
Dariusz Prokopowicz
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Dear Dariusz,
Thank you for this thoughtful and critical question. It lies at the very intersection of technological capability, governance, and national security. My opinion is that while public institutions cannot achieve absolute, perfect security, they can and must build a layered, pragmatic defense that prioritizes resilience and adaptive governance alongside technical safeguards. Complete classification of data is neither feasible nor desirable for transparent and effective economic planning, but a strategy based on distrust-by-design and human oversight can significantly mitigate the risks.
On the technical front, the arguments in favor are valid but must be seen as components of a system, not silver bullets. Techniques like federated learning can keep sensitive data decentralized, making large-scale poisoning harder. Cryptographic verification (e.g., data provenance via blockchain-inspired ledgers) can create audit trails for critical data feeds. Adversarial AI can be used proactively to stress-test models against potential manipulation scenarios. However, as the arguments against rightly warn, these are arms in a continual race. A sophisticated attacker, especially a state actor, might exploit subtle distortions or even manipulate real-world market signals to "guide" the AI to a desired erroneous conclusion. The complexity of models can indeed obscure these attacks, making them "silent weapons."
Therefore, the core solution is not purely technical. Institutional and governance resilience is paramount. This involves:
  1. Hybrid Decision-Making: AI must be a tool for analysis, not an autonomous policy arbiter. Implementing human-in-the-loop checkpoints, where AI outputs are scrutinized by diverse teams of economists, domain experts, and security analysts, creates a vital buffer against automated catastrophic decisions.
  2. Data Pluralism and Cross-Validation: Systems should never rely on a single data stream. Policies should be informed by multiple, independent data sources (public, private, international) and models. Consistent anomalies across sources can signal manipulation, much like triangulation.
  3. Resilience Testing and "Red Teaming": Public institutions must continuously conduct war-gaming exercises, where dedicated teams attempt to poison data or fool models. This reveals vulnerabilities before adversaries do.
  4. Transparency and Audits: While the underlying data may be sensitive, the principles, model architectures, and governance protocols should be as transparent as possible to build public trust and allow for external academic and professional scrutiny.
In conclusion, the vulnerability is real and serious, but the response should not be retreat or total classification. Instead, public institutions must foster a culture of informed vigilance, where advanced technical defenses are embedded within robust, human-centric governance frameworks. The goal is to build systems that are resilient enough to detect, withstand, and adapt to attacks, ensuring that even if data poisoning occurs, its path to triggering catastrophic policy is blocked by layers of verification and human judgment.
I share your view that this is a crucial area for interdisciplinary research, blending computer science, economics, and security studies. I am very interested in the possibility of collaboration to explore these pragmatic defenses further.
Best regards,
Kwan Hong TAN
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IEEE 2026 9th International Symposium on Big Data and Applied Statistics (ISBDAS 2026) will be held from March 6 to 8, 2026, in Guangzhou, China.
Conference Website: https://ais.cn/u/eUfEn2
---Call for papers---
The topics of interest for submission include, but are not limited to:
1. Big Data Algorithms
Intelligent computing applications
Models and calculations
Intelligent computing algorithms
Evolutionary computation
Data Mining
Ternary decision making and machine learning
Combinatorial algorithms
Data and text mining
Knowledge reasoning
Deep Learning
2. The applied mathematics theory
Game Theory
Cognitive modeling and computation
Probability and statistics
Differential equation and their applications
Discrete mathematics and control
Linear algebra and its applications
Numerical analysis
Operations Research and optimization
Approximate theory
Combinatorial mathematics
The theory of computability
Discrete geometry
Matrix calculations
---Publication---
All papers will be reviewed by two or three expert reviewers from the conference committees. After a careful reviewing process, all accepted papers will be published by IEEE (ISBN: 979-8-3315-7218-1) and submit to EI Compendex and Scopus for indexing.
---Important Dates---
Full Paper Submission Date: January 31, 2026
Registration Deadline: February 17, 2026
Final Paper Submission Date: February 4 , 2026
Conference Dates: March 6-8, 2026
--- Paper Submission---
Please send the full paper(word+pdf) to Submission System:
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Eqb for everyone
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What are the key considerations or best practices for post-training a Base LLM to specifically enhance its general-purpose capabilities in a single language?
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If you're finding it difficult to outperform general-purpose Chat models within a single language, and your actual goal is to boost performance on a specific NLP task, consider that the general-purpose fine-tuning data (e.g., datasets like COIG-CQIA) is often vastly different from your domain-specific NLP task.
A more effective strategy would be:
  1. Perform Continual Pre-Training (CPT) on a Base model using your domain-specific text.
  2. Fine-tune the post-CPT model using your NLP task's training set. This step allows the model to integrate its broad, pre-existing knowledge (now adapted to your domain) with the specific requirements of your task.
  • asked a question related to Deep Learning
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Not through show-case prompts.
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If you're finding it difficult to outperform general-purpose Chat models within a single language, and your actual goal is to boost performance on a specific NLP task, consider that the general-purpose fine-tuning data (e.g., datasets like COIG-CQIA) is often vastly different from your domain-specific NLP task.
A more effective strategy would be:
  1. Perform Continual Pre-Training (CPT) on a Base model using your domain-specific text.
  2. Fine-tune the post-CPT model using your NLP task's training set. This step allows the model to integrate its broad, pre-existing knowledge (now adapted to your domain) with the specific requirements of your task.
  • asked a question related to Deep Learning
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IEEE - 2026 9th International Symposium on Big Data and Applied Statistics (ISBDAS 2026) will be held from March 6 to 8, 2026, in Guangzhou, China.
---𝗖𝗮𝗹𝗹 𝗳𝗼𝗿 𝗽𝗮𝗽𝗲𝗿𝘀---
The topics of interest for submission include, but are not limited to:
1.Big Data Algorithms
Intelligent computing applications
Models and calculations
Intelligent computing algorithms
Evolutionary computation
Data Mining
Ternary decision making and machine learning
Combinatorial algorithms
Data and text mining
Knowledge reasoning
Deep Learning
...
2.The Applied Mathematics Theory
Game Theory
Cognitive modeling and computation
Probability and statistics
Differential equation and their applications
Discrete mathematics and control
Linear algebra and its applications
Numerical analysis
Operations Research and optimization
Approximate theory
Combinatorial mathematics
The theory of computability
Discrete geometry
Matrix calculations
...
---𝗦𝗽𝗲𝗮𝗸𝗲𝗿𝘀---
Prof. Nianyin Zeng,Xiamen University, China
Prof. Han Huang,South China University of Technology, China
Prof.Hongliang Dai,Guangzhou University,China
---𝗣𝘂𝗯𝗹𝗶𝗰𝗮𝘁𝗶𝗼𝗻---
All papers will be reviewed by two or three expert reviewers from the conference committees. After a careful reviewing process, all accepted papers will be published by IEEE (ISBN: 979-8-3315-7218-1) and submit to EI Compendex and Scopus for indexing.
---𝗜𝗺𝗽𝗼𝗿𝘁𝗮𝗻𝘁 𝗗𝗮𝘁𝗲𝘀---
Full Paper Submission Date: January 31, 2026
Registration Deadline: February 17, 2026
Final Paper Submission Date: February 4 , 2026
Conference Dates: March 6-8, 2026
--- 𝗣𝗮𝗽𝗲𝗿 𝗦𝘂𝗯𝗺𝗶𝘀𝘀𝗶𝗼𝗻---
Please send the full paper(word+pdf) to Submission System:
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Yes interested
  • asked a question related to Deep Learning
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2026 3rd International Conference on Remote Sensing Technology and Survey Mapping (RSTSM 2026) will be held in Wuhan, Hubei Province, China, on March 6-8, 2026.
---𝗖𝗮𝗹𝗹 𝗳𝗼𝗿 𝗽𝗮𝗽𝗲𝗿𝘀---
The topics of interest for submission include, but are not limited to:
Track 1: Remote Sensing Technology and Applications
1. Application of optical remote sensing technology in surface feature extraction and classification
2. Optical texture analysis and application of high-resolution remote sensing images
3. Improvement and enhancement of spatial and temporal resolution of optical remote sensing images
4. computer vision-based aerial image processing and feature recognition technology
5. Application of Optical Remote Sensing Technology in Environmental Monitoring and Resource Management
Track 2: Laser Scanning Measurement Technology and Applications
6. Application of laser scanning measurement technology in 3D mapping and building surveying
7. Performance and accuracy of laser measurement instruments and sensors
8. Laser Scanning Data for Underground Target Detection and Underground Object Imaging
9. Laser scanning based data analysis
Track 3: Application of Computer Vision and Machine Learning in Remote Sensing and Surveying and Mapping
10. Innovative Methods of Computer Vision Technology in Remote Sensing Image Interpretation and Analysis
11. Computer algorithms and models based on remote sensing data monitoring
12. deep learning and artificial intelligence applications in remote sensing and survey mapping
13. Optical Imaging and Computer Algorithms for Defect Detection and Recognition
Track 4: Remote Sensing Data Processing and Applications
14. Remote Sensing Data Preprocessing and Correction Methods
15. Remote Sensing Data Fusion and Feature Extraction
16. Remote sensing data-based change detection and monitoring techniques
17. Application of remote sensing data in natural disaster monitoring and prediction
---𝗣𝘂𝗯𝗹𝗶𝗰𝗮𝘁𝗶𝗼𝗻---
After 2-3 experts of the organizing committee strictly audited the contribution of the conference, all the final papers will be officially published by SPIE - The International Society for Optical Engineering (ISSN: 0277-786X) in the Conference Proceedings. The published papers will then be submitted to EI Compendex, Scopus for indexing.
---𝗜𝗺𝗽𝗼𝗿𝘁𝗮𝗻𝘁 𝗗𝗮𝘁𝗲𝘀---
Full Paper Submission Date:January 31, 2026
Registration Deadline:February 28, 2026
Final Paper Submission Date: February 27 , 2026
Conference Dates: March 6-8, 2026
--- 𝗣𝗮𝗽𝗲𝗿 𝗦𝘂𝗯𝗺𝗶𝘀𝘀𝗶𝗼𝗻---
Please send the full paper(word+pdf) to Submission System:
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conference paper
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2026 5th International Conference on Bigdata Blockchain and Economy Management (ICBBEM 2026) will be held in Kuala Lumpur, Malaysia during January 30- February 1, 2026.
𝗖𝗼𝗻𝗳𝗲𝗿𝗲𝗻𝗰𝗲 𝗪𝗲𝗯𝘀𝗶𝘁𝗲: https://www.aischolar.com/conference/icbbem2026?invite=researchgate
---𝗖𝗮𝗹𝗹 𝗳𝗼𝗿 𝗽𝗮𝗽𝗲𝗿𝘀---
The topics of interest for submission include, but are not limited to:
◕ Track 1: Big Data and Intelligent Analytics
Big data algorithms
Big data applications
Big data services
Intelligent data analytics
Knowledge discovery
Data quality and integration
Data preprocessing
Scalable data storage
Cloud-based big data systems
High-performance data processing
Infrastructure for big data and blockchain
Machine learning for big data
Deep learning for big data
Data-driven decision support
◕Track 2: Intelligent Economy and Digital Management
Digital economy
AI-driven innovation
Information technology in economic management
Intelligent modeling and prediction
Predictive analytics for economic systems
Data mining in digital economy
Time series forecasting
Algorithmic decision-making
Smart finance
Financial technology (FinTech)
Big data in financial regulation
Risk control systems
Intelligent e-commerce
Digital business
Market analytics
Blockchain in economic governance
◕ Track 3: Blockchain Systems and Applications
Blockchain architectures
Blockchain platforms
Distributed ledger technologies
Smart contracts
Blockchain-based IoT systems
Cyber-physical blockchain systems
Data provenance
Blockchain data management
Blockchain security
Data integrity and authentication
Privacy and trust management
Attack detection and defense
Decentralized applications (DApps)
Digital assets
Blockchain in digital economy
Supply chain management
Cross-chain interoperability
Transaction management
---𝗣𝘂𝗯𝗹𝗶𝗰𝗮𝘁𝗶𝗼𝗻---
All papers, both invited and contributed, will be reviewed by two or three experts from the committees. After a careful reviewing process, all accepted papers of ICBBEM 2026 will be published in IET Conference Proceedings (ISSN: 2732-4494) and submitted to EI Compendex, Scopus for indexing.
---𝗜𝗺𝗽𝗼𝗿𝘁𝗮𝗻𝘁 𝗗𝗮𝘁𝗲𝘀---
Full Paper Submission Date: January 15, 2026
Registration Date: January 23, 2026
Final Paper Submission Date: January 23, 2026
Conference Dates: January 30-February 1, 2026
--- 𝗣𝗮𝗽𝗲𝗿 𝗦𝘂𝗯𝗺𝗶𝘀𝘀𝗶𝗼𝗻---
Please send the full paper(word+pdf) to Submission System:
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Hi, Simon Suwanzy Dzreke . For detailed information regarding the conference, please kindly refer to the official website. If you have any questions, you may also email us directly at contact@icbbem.com.
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Dear Researchers,
AI systems increasingly speak with empathy, confidence, and social awareness. This human like attitude can improve engagement and trust. It can also blur the line between tool and agent. Users may overestimate understanding, intent, or responsibility where none exists. This raises a tension between usability and honesty. Are we designing AI to support users, or to simulate humanity in ways that quietly mislead them?
  1. Does human like communication increase trust beyond actual machine capability?
  2. When does empathetic AI attitude support users and when does it bias user judgment?
  3. Should AI interaction style prioritize transparency over engagement in high stakes contexts?
  4. Who is accountable when user attitudes and AI response styles jointly produce misattributed agency or intent?
Relevant discussions and studies include:
  • https://theconversation.com/evidence-shows-ai-systems-are-already-too-much-like-humans-will-that-be-a-problem-256980
  • https://neurosciencenews.com/ai-human-thinking-28535/
  • Chae, Myoung-Jin, and Molan Kim. "Too human to trust? How AI human-likeness and context orientation shape consumer preferences in premium high-tech markets." Journal of Retailing and Consumer Services 88 (2026): 104513.
  • Chae, Myoung-Jin, and Molan Kim. "Too human to trust? How AI human-likeness and context orientation shape consumer preferences in premium high-tech markets." Journal of Retailing and Consumer Services 88 (2026): 104513.
  • Chen, Yunan, et al. "Attitudes Toward AI-powered Robots in Policing: AI Literacy, Organizational Justice, and Occupational Wellbeing Among Chinese Police Officers." Asian Journal of Criminology 21.1 (2026): 3.
  • Tan, Xiaojiayu, et al. "Born to Fear the Machine? Genetic and Environmental Influences on Negative Attitudes toward AI Agents." Advanced Science (2025): e06262.
Looking forward to your insights.
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This touches on one of the most nuanced challenges in human-AI interaction design. The tension you're highlighting isn't really about choosing one extreme over the other, but rather understanding the contextual appropriateness of different presentation styles.
From my work developing educational AI systems, I've observed that the effectiveness of human-like characteristics depends heavily on the interaction's purpose and the user's level of AI literacy. In educational contexts where we're trying to reduce anxiety and encourage exploration, some degree of warmth and conversational flow can create psychological safety that enables better learning outcomes. Students who perceive the system as approachable are more likely to ask clarifying questions and engage in iterative problem-solving.
However, there's a crucial distinction between being conversational and creating false impressions of consciousness or understanding. The risk isn't in the tone itself but in implying capabilities that don't exist. When AI systems use phrases that suggest genuine comprehension or emotional experience without appropriate contextualization, users can develop misaligned mental models about what they're interacting with.
The interesting question is whether we can design systems that are engaging and accessible while maintaining epistemic honesty. In practice, this might mean being conversational about procedural aspects while being more precise about limitations and uncertainties. For instance, an AI tutor can be warm and encouraging while explicitly acknowledging when it's making probabilistic inferences rather than demonstrating true understanding.
There's also a temporal dimension here. As users become more sophisticated in their understanding of AI systems, their tolerance for and perception of anthropomorphic language shifts. What seems helpful to a novice user might feel patronizing or misleading to someone with technical knowledge. This suggests we might need adaptive presentation strategies that evolve with user experience.
The trust issue you mention is particularly important. Trust in AI systems shouldn't be built on the illusion of human-like understanding but on reliability, transparency about capabilities, and appropriate calibration of user expectations. When systems present themselves as more human-like than they functionally are, it can actually undermine trust in the long run as users encounter capability boundaries.
From a design perspective, I think the key is distinguishing between anthropomorphic presentation and anthropomorphic attribution. The former is about interface and communication style, while the latter involves users ascribing human properties to the system. We can optimize the first while actively working to prevent misunderstandings in the second.
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Does the implementation of advanced AI systems by individual countries to optimize their own fiscal and monetary policies (e.g., predictive trade interventions) threaten global stability by introducing chaos and an algorithmic arms race, thereby necessitating the urgent establishment of a supranational body to coordinate the use of AI in macroeconomics?
Dear Colleagues and Friends from RG,
This issue shifts the discussion from the national to the global level. The arguments in favor (Yes) claim that if countries fully automate their economic strategies, they will act selfishly and competitively (e.g., optimizing their exports at the expense of their neighbors), leading to a new kind of trade and currency war based on the speed of algorithms. The establishment of a global body (e.g., a strengthened IMF or AI-managed G20) could harmonize policies and prevent systemic crises, acting for the global good. Arguments against (No) focus on national sovereignty and fear that centralized AI-based economic management would create an uncontrollable superpower that could impose unfavorable economic conditions on weaker countries. Furthermore, the lack of competition and diversity of economic strategies could hinder the evolution and testing of new, potentially better policy models.
What do you think about this?
Please reply
I invite you to discuss
Thank you very much. All the best!
I invite you to collaborate on research.
Best regards,
Dariusz Prokopowicz
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Es un distinguido honor concurrir en esta deliberación sobre la gobernanza global de la inteligencia artificial en el ámbito macroeconómico. Desde una perspectiva de economía política progresista en México, sostenemos que la proliferación de sistemas algorítmicos nacionales para la optimización fiscal y comercial corre el riesgo de institucionalizar una "carrera armamentista" tecnológica que profundice las asimetrías del sistema centro-periferia. Bajo la premisa de la Teoría de la Dependencia y las contribuciones de Raúl Prebisch, advertimos que, sin una coordinación internacional equitativa, la IA podría ser utilizada por las potencias económicas para consolidar un neo-proteccionismo digital, donde los algoritmos de alta velocidad actúen como mecanismos de extracción de valor y desestabilización cambiaria en contra de las economías emergentes. En este sentido, la soberanía nacional no debe entenderse como un aislamiento competitivo, sino como la capacidad de participar en un orden global que regule las externalidades negativas de la automatización macroeconómica, evitando que la eficiencia algorítmica de unos se traduzca en la vulnerabilidad sistémica de otros.
Por consiguiente, abogamos por la creación de un marco de cooperación multilateral que trascienda la mera tecnocracia y se fundamente en la justicia distributiva global y la transparencia algorítmica. Inspirados en la propuesta de Dani Rodrik sobre el "trilema de la economía mundial", consideramos que la armonización de políticas mediadas por IA debe evitar la trampa de un centralismo autoritario que erosione el contrato social de las naciones menos favorecidas. En lugar de un organismo supranacional con poderes coercitivos y opacos, México y América Latina deben impulsar un multilateralismo democrático que promueva la transferencia tecnológica y la gobernanza ética de los datos como bienes públicos globales. Solo a través de una coordinación que priorice el desarrollo humano y la estabilidad compartida sobre la optimización egoísta del PIB, podremos asegurar que la inteligencia artificial sea una fuerza de convergencia económica y no el motor de una nueva y más profunda fragmentación del orden internacional.
Hago propicia esta oportunidad para reiterar mi compromiso con la construcción de un pensamiento económico que armonice la vanguardia tecnológica con la equidad social, quedando a su entera disposición para colaborar en la definición de estos nuevos paradigmas de cooperación global.
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Does heavy reliance on highly complex, opaque AI models (deep learning, recurrent neural networks) in economic and financial crisis management (e.g., systemic risk detection, automatic emergency interventions) make the economic system less resilient to extreme events (Black Swans) due to a lack of human understanding and the ability to intervene quickly when AI fails in unforeseen ways?
Dear Colleagues and Friends from RG,
This is a question of risk and fragility resulting from complexity. The arguments in favor (Yes) focus on the speed and accuracy of AI responses, which are crucial in modern, ultra-fast markets; these systems can monitor an infinite number of variables and respond in milliseconds, which is essential to prevent panic and the spread of risk in a world of global financial interconnections. Human response is too slow. Arguments against (No) emphasize that these systems are black boxes, and their complexity is directly proportional to the risk of a catastrophe whose causes cannot be determined (explainability problem). If a complex AI system fails in the face of a “black swan” event, human decision-makers will be completely unprepared to take control, leading to a deeper and more uncontrollable collapse than would be the case in a system based on simpler, transparent rules.
What is your opinion on this topic?
Please reply
I invite you to join the discussion
Thank you very much. All the best!
I invite you to collaborate on research.
Best regards
Dariusz Prokopowicz
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Estimado Dr. Dariusz Prokopowicz
Es un distinguido honor participar en este debate de vital importancia para la arquitectura financiera contemporánea. Desde una perspectiva de economía política progresista en México, consideramos que la dependencia absoluta en modelos de aprendizaje profundo para la gestión de crisis introduce una fragilidad sistémica paradójica: al intentar optimizar la respuesta ante la volatilidad mediante la velocidad, se sacrifica la robustez del sistema frente a lo inédito. Bajo la premisa de Nassim Nicholas Taleb sobre la fragilidad de los sistemas hiper-optimizados, la opacidad de las "cajas negras" algorítmicas despoja a los tomadores de decisiones de la capacidad de juicio prudencial y heurístico, elementos indispensables cuando la realidad diverge de los patrones históricos. En el contexto de economías emergentes, donde los choques externos tienen impactos sociales devastadores, la delegación de la estabilidad macroeconómica a procesos carentes de explicabilidad técnica y política no solo es un riesgo operativo, sino una abdicación de la responsabilidad soberana del Estado sobre el bienestar común.
Asimismo, inspirados en la Hipótesis de Inestabilidad Financiera de Hyman Minsky, sostenemos que la aparente seguridad proporcionada por la automatización de intervenciones de emergencia puede generar un velo de complacencia que incentive la acumulación de riesgos sistémicos ocultos. Para que la tecnología sea una herramienta de resiliencia y no un catalizador de catástrofes, es imperativo transitar hacia un modelo de gobernanza algorítmica que integre la inteligencia humana en el bucle de decisión (mecanismos de human-in-the-loop) y garantice la transparencia institucional. La soberanía económica en la era digital demanda que el análisis predictivo sea un insumo para la deliberación democrática y no un sustituto de la ética política; solo así podremos asegurar que, ante la inminencia de un evento de "Cisne Negro", la respuesta del sistema no sea un colapso automatizado, sino una intervención coordinada que priorice la estabilidad social y la protección de los sectores más vulnerables de nuestra región.
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Hello, I'm currently working on a DL-CNN project. If you want to know more about the details please message me. Hoping to find people to work with. Thank you!
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AI: Here are several possible responses to this ad, with different styles and levels of detail. Choose the one that is closest to you:
Option 1. Brief and businesslike
Topic: Interest in cooperation within the framework of the DLL‑CNN project
Hello,
I have read your post about the DL‑CNN project, and I am very interested in cooperation. I have experience in deep learning and convolutional neural networks, and I would like to know more about your goals and how I can contribute.
Please let me know how best to discuss this further.
With respect, [Your name]
Option 2. Detailed with an emphasis on expertise
Topic: Potential collaboration in your DL‑CNN project
Dear [Name],
I came across your advertisement for a research associate for the Deep Learning Project (DL-CNN) and would like to express my deep interest.
My education includes:
  • 2 years of practical experience working with CNN architectures (ResNet, U‑Net, VGG).;
  • working with platforms such as PyTorch and TensorFlow;
  • Participation in a computer vision project aimed at detecting objects in medical images;
  • Publication in [Name of the journal/conference, if applicable].
I would appreciate the opportunity to discuss your project in more detail — its goals, current stage, and specific areas where my skills could be most useful.
I am looking forward to your reply.
With respect, [Your full name] [Optional: Position/Place of work] [Contacts: email, LinkedIn/ GitHub, if applicable ]
Option 3. Relaxed and motivated
Hi,
Thank you for posting about your project for DL‑CNN! It sounds really exciting, and I'd be happy to join you as a co-author.
I am passionate about deep learning, especially the application of CNNS in [specify the relevant field, for example, image classification, natural language processing, etc.]. I have worked with [specify tools: for example, Keras, OpenCV] and completed several personal projects in [briefly describe one of them, for example, face recognition or style transfer ].
I'm happy to chat at any time — just send me a message!
Ovation, [Your name]
Option 4. As specific as possible (if you want to suggest ideas right away)
Topic: Cooperation proposal: experience and ideas of DL‑CNN
Hello [Name],
Your search for an employee for the DL‑CNN project has attracted my attention. I would like to share my skills and a few initial ideas that might fit your goals.
I specialize in optimizing CNN models to improve speed and accuracy, in particular using techniques such as:
  • Training with data migration;
  • Increased data volume;
  • Reduction and quantization of models.
If your project involves problems such as a limited amount of training data or real-time output, I would be happy to discuss how these approaches can help.
Let's schedule a short phone conversation or an exchange of messages to get a synergistic effect.
Best wishes, [Your name] [A brief description of the work or a link to the portfolio/GitHub]
If you want, I can refine some of the options to suit your specific experience or help with the translation into another language!
  • asked a question related to Deep Learning
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I have worked on encrypted application traffic detection using a deep learning model in my master's thesis, and I have also written a paper on that, but now I need a sponsor that can help me publish my paper in a well-known journal. I have tried working with my university professor and have been waiting for a while for proper guidance, but I haven't been able to get any. I am open to suggestions. Thanks
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AI: Here’s a step‑by‑step guide to help you find a sponsor or alternative ways to publish your paper on encrypted application traffic detection using deep learning:
Step 1. Explore internal university resources
Start with what’s available at your institution:
  • Contact other professors. If your current advisor is unavailable, reach out to other faculty members in computer science, cybersecurity, or AI departments. They might be interested in your work or can connect you with potential sponsors.
  • Graduate school office. Ask about funding for conference presentations and journal publications — many universities have small grants for students.
  • Research centers. If your university has cybersecurity or AI research centers, contact them. They often have publication funds or industry partnerships.
  • Alumni network. Look for alumni working in cybersecurity companies or research labs. They might sponsor your work or provide guidance.
Step 2. Target academic sponsors
Consider these academic funding sources:
  • Conference sponsorships. Many top conferences (e.g., IEEE INFOCOM, ACM CCS) offer travel grants or publication support. Submit your paper to relevant conferences first — journal publication can follow.
  • Research grants. Look for small grants from national science foundations or technology councils in your country. Some grants specifically support early‑career researchers.
  • Collaboration with research groups. Find academic labs working on network security or deep learning. Offer to collaborate — they might sponsor publication as part of joint research.
Step 3. Seek industry sponsors
Cybersecurity and networking companies may be interested:
  • Cybersecurity firms (e.g., Kaspersky, McAfee, Fortinet) often sponsor research aligned with their products.
  • Networking equipment vendors (e.g., Cisco, Juniper) invest in network traffic analysis research.
  • Cloud providers (e.g., AWS, Microsoft Azure, Google Cloud) have security research programs.
  • Telecom operators deal with encrypted traffic daily and may fund relevant research.
How to approach them:
  1. Identify companies with research publications in your area.
  2. Find their research contacts or university liaisons.
  3. Send a concise proposal: 1–2 pages outlining your research, its relevance to their business, and publication goals.
  4. Highlight potential benefits: new detection methods could improve their security products.
Step 4. Use open‑access and low‑cost options
If securing a sponsor proves difficult, consider these alternatives:
  • Preprint servers. Post your paper on arXiv.org (section: cs.CR — Cryptography and Security) or TechRxiv. This establishes priority and allows feedback before formal publication.
  • Open‑access journals with waiver policies. Many journals (e.g., PLOS ONE, IEEE Access) offer fee waivers for authors without funding. Check their waiver application process.
  • Society‑affiliated journals. Professional societies (IEEE, ACM, IET) sometimes offer discounted publication for student members.
  • University repositories. Publish in your institution’s digital repository — this is free and provides a formal record.
Step 5. Build visibility and connections
Increase your chances through networking:
  • Attend conferences (even virtually). Present your work in poster sessions, engage with researchers, and mention your publication plans.
  • Join professional groups on LinkedIn or ResearchGate. Share your preprint and ask for advice.
  • Participate in workshops on network security or machine learning. These smaller events often lead to collaborations.
  • Contact journal editors. Write to associate editors of relevant journals. Briefly describe your work and ask if it fits their scope. Some may suggest a waiver or guide you to funding sources.
Step 6. Prepare a strong proposal
When approaching potential sponsors, include:
  • Executive summary: 1 page highlighting key findings and impact.
  • Technical overview: 2–3 pages with methodology, results, and novelty of your deep learning model.
  • Publication plan: Which journal/conference, timeline, and estimated costs (e.g., open‑access fees: $500–$3000).
  • Sponsorship benefits: How the sponsor’s name will be acknowledged (e.g., “This work was supported by [Company]”).
  • Budget: Clear breakdown of publication‑related expenses.
Quick checklist: What to do now
  1. Polish your paper. Ensure it’s submission‑ready: clear problem statement, novel methodology, reproducible results, and strong discussion.
  2. Identify 3–5 target journals/conferences. Check their scope, impact factor, and open‑access policies.
  3. Reach out to 2–3 faculty members at your university for mentorship.
  4. Post a preprint on arXiv to get early feedback.
  5. Draft a 1‑page sponsorship proposal and start contacting potential sponsors.
Would you like me to elaborate on any of these steps or help you draft a specific part (e.g., a sponsorship email or preprint abstract)?
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Should the implementation of advanced AI systems capable of measuring complex and non-linear indicators of well-being (beyond GDP and unemployment) should it empower governments to radically redefine the very definition of a country's economic success, moving away from traditional, measurable indicators in favor of individualized and dynamically changing goals optimized by algorithms?
Dear Colleagues and Friends from RG,
This is a dilemma concerning purposefulness and measurability. The arguments in favor (Yes) assume that AI can take into account hundreds of factors (mental health, environmental quality, equal opportunities) and propose a more holistic and true measure of well-being, which is ethically desirable; focusing solely on GDP leads to environmentally and socially destructive policies. AI allows us to target the real needs of citizens. The arguments against (No) warn that traditional indicators (such as GDP) are crucial for transparency, international comparison, and democratic control; replacing them with complex, ever-changing AI targets would make policy incomprehensible and not subject to democratic accountability, creating the illusion of success by constantly changing the rules of the game and ultimately undermining the credibility of the state. Researchers need to define how to introduce the complexity of AI without losing democratic transparency.
What do you think about this?
Please reply
I invite you to discuss
Thank you very much. All the best!
I invite you to collaborate on research.
Warm regards,
Dariusz Prokopowicz
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An Invitation to Co-Architect the Metrics of Flourishing
Dear Dariusz,
As a researcher newly entering this discourse at the intersection of environmental engineering and computational ontologies, I find this dilemma regarding AI and economic policy deeply compelling. We seem to be at a threshold where we can finally move beyond the constraints of Industrial Age metrics like GDP.
Could we view AI not as a replacement for democratic accountability, but as a "Forensic Auditor" of our shared values? In my work at South Dakota School of Mines & Technology—building upon the AutoXMeSH methodology pioneered by my mentor, Dr. Venkataramana Gadhamshetty, and colleagues (IEEE BIBM, 2021)—we see how automated tools can identify "emerging" value in sparse data sets. For instance, AutoXMeSH can automatically index the burgeoning significance of graphene in biomedical applications before it is fully recognized by traditional hierarchies.
I wonder if we might apply this same logic to our social "thesaurus"? Instead of a top-down algorithmic definition of success, we could envision a collaborative model where:
  1. Humans provide the Design Intent: We remain the architects of "Why" we value certain outcomes (The Logos), ensuring the system is anchored in objective truth.
  2. AI Captures Emerging Value: Tools like AutoXMeSH help us identify and index new dimensions of "success" (like community resilience or spiritual health) by measuring their "frequency contrast" against the background of standard economic activity.
  3. Transparency through Ownership: By creating open-sourced, hierarchical ontologies of well-being, we allow every citizen to champion their own aspect of value.
I would be curious to hear your thoughts, and perhaps those of @Venkataramana Gadhamshetty, on how we might prioritize these "weird" and wonderful indicators of human dignity to ensure our economic metrics are as rich as the lives they represent.
Warm regards,
Caine Shagla Student, South Dakota School of Mines & Technology
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Hi everyone, I’m an MSCS student in the U.S. preparing a MICCAI 2026 submission on histopathology self-supervised learning and label efficiency (benchmarking performance under 1–10% labeled regimes with strong baselines).
Due to international travel constraints, I may not be able to attend in person in Abu Dhabi. I’m looking for a collaborator who can contribute meaningfully before submission (experiments/analysis/writing/reproducibility) and, if accepted, potentially present on-site as an author.
If interested, please DM me with your background (medical imaging / SSL / PyTorch) and availability. Thanks!
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I’m a bit confused about how MATLAB relates to WSI annotations in label efficiency for histopathology, and also how this ties into presenting on-site at the conference.
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How can Deep Learning be utilized to improve the accuracy of early diagnosis for [specific disease] using radiological images, while minimizing the rate of false positives?
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Deep learning can improve early disease diagnosis from radiological images by learning subtle visual patterns that are hard for humans to detect. Convolutional neural networks (CNNs) are commonly used to extract disease-specific features from X-rays, CT, or MRI scans. Using high-quality, well-annotated datasets helps the model learn accurate distinctions between healthy and diseased tissue. Data augmentation and class balancing reduce overfitting and bias toward false positives. Segmentation models (e.g., U-Net) can localize suspicious regions before classification, improving precision. Transfer learning allows models to benefit from large pre-trained medical imaging datasets. Custom loss functions (such as focal loss) can penalize false positives more strongly during training. Threshold tuning helps balance sensitivity and specificity based on clinical needs. Explainable AI techniques (like Grad-CAM) help clinicians verify model decisions. Human-in-the-loop validation further reduces false positives and improves real-world reliability.
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Do governments have the right to conduct massive, unprecedented collection and analysis of citizens' sensitive financial and behavioral data using AI algorithms, in order to maximize the effectiveness of economic and fiscal policy (e.g., precise detection of tax fraud or prediction of consumption changes), even if this poses a potential threat to their privacy and civil liberties?
Hello Dear Everyone,
This is a clash between the state's economic security and the individual's privacy. Arguments for (Yes) focus on common welfare and fiscal justice; by analyzing transactional data, AI can detect large-scale fraud mechanisms and the shadow economy, leading to greater budget revenues and fairer tax burdens, which benefits everyone. Proponents argue that privacy can be technically secured (e.g., through anonymization or homomorphic techniques). Arguments against (No) warn against the economic surveillance state; the ability to track every transaction and consumer decision in real-time gives the authorities immense control over citizens, posing a threat to political and economic freedoms – even a minimal data leak or misuse could lead to discrimination or persecution. Researchers should focus on defining the minimum, essential scope of data and establishing mechanisms for external audit of the algorithms used by the state.
What do you think about this?
Please reply
I invite you to the discussion
Thank you very much. All the best!
I invite you to scientific collaboration,
Best regards,
Dariusz Prokopowicz
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Yes, excessive AI-driven economic surveillance does threaten privacy and civil liberties—but limited, well-governed use may be justified if strong safeguards are enforced. Excessive AI-driven economic surveillance does pose a serious threat to individual privacy and civil liberties, even though governments may justify it in the name of economic security and fiscal fairness. While the use of AI to analyze financial and behavioral data can help detect tax fraud, reduce the shadow economy, and improve economic policymaking for the common good, the large-scale and continuous collection of sensitive data fundamentally shifts the balance of power between the state and citizens.
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Dear Researchers,
Before, knowledge was rare. People feared sharing it, but it had value. Today, knowledge is open to everyone. Yet it often lacks value because there are too much information and too little understanding.
  1. Do you think the openness of information has improved real understanding, or has it reduced the value of knowledge?
  2. How can we restore value to knowledge in an age of information overload?
  3. Is knowledge still power when everyone has access to it?
  • Arnold, Miriam, Mascha Goldschmitt, and Thomas Rigotti. "Dealing with information overload: a comprehensive review." Frontiers in psychology 14 (2023): 1122200.
  • Liu, Ziyu, Yushen Du, and Enrico Pennings. "Open knowledge disclosure and firm value: a signalling theory perspective." Industry and Innovation 31.4 (2024): 475-500.
  • https://www.ollielovell.com/the-scarcity-and-value-of-knowledge/
Looking forward to your insights.
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Introduction
Among my main research expertise is knowledge management, where I manage knowledge (information resources such as research papers, contacts, learning materials) to have knowledge accessible and retained within organizations to prevent knowledge loss.
Knowledge is power as the openness of information improved real understanding given the knowledge of how to use the information.
A common saying I say for Explainable Artificial Intelligence to explain about usage of Artificial Intelligence, "Artificial Intelligence is only as good as the person using it", which also applies for the openness of information as being able to access information from worldwide information in the age of Internet has changed the world through what people have done with the openness of information.
Introduction to Knowledge Management
Per IBM's article:
"Knowledge management (KM) is the process of identifying, organizing, storing and disseminating information within an organization."
"Knowledge management process
While some academics summarize the knowledge management process as involving knowledge acquisition, creation, refinement, storage, transfer, sharing and utilization. This process can be synthesized this a little further. Effective knowledge management system typically goes through three main steps:
  1. Knowledge Creation: During this step, organizations identify and document any existing or new knowledge that they want to circulate across the company.
  2. Knowledge Storage: During this stage, an information technology system is typically used to host organizational knowledge for distribution. Information may need to be formatted in a particular way to meet the requirements of that repository.
  3. Knowledge Sharing: In this final stage, processes to share knowledge are communicated broadly across the organization. The rate in which information spreads will vary depending on organizational culture. Companies that encourage and reward this behavior will certainly have a competitive advantage over other ones in their industry."
Knowledge Management Resources
Application of Knowledge Management
As Founder and President of my cultural performing musical arts Yamabuki Taiko club for the Japanese drumming art of taiko at UC Merced, I was an instructor and developed the curriculum alongside lesson materials. I maintained the materials, contacts, officer meeting minutes and agenda, photography, etc and passed it down for the next generation of officers to use to prevent knowledge loss.
Here is an example of what I provide for on my website for the taiko community to use through gathering information discovered online searches for making taiko equipment such as musical instruments and performance attire.
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I'm an undergraduate doing a Software Engineering degree. I'm looking for a research topic for my final year project. If anyone has any ideas or research topics or any advice on how or where to find one please post them.
Thanks in advance ✌
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Software engineering research topics include AI-assisted programming, software reliability and security, technical debt management, DevOps and continuous delivery optimization, human–AI collaboration in development, requirements engineering for AI systems, and sustainability-aware software design.
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Excellent papers can be accepted within 35 days, and No fees or APC for publications
Topics covered include Machine learning,Deep learning,Transformer,GAN, CNN,RNN, LSTM,Big data,Evolutionary algorithms,Particle swarm optimisation,Engineering design optimisation,Applications associated with intelligent computation
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im interested
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2026 2nd International Conference on Artificial Intelligence, Digital Media Technology and Social Computing (ICAIDS 2026) will be held in Chicago, USA on January 30-February 1, 2026.
--- Important information ---
ICAIDS Location(Hybrid): Chicago, United States / Virtual
Conference papers will be submitted to these databases: EI Compendex, Scopus
Full Paper Submission Deadline: January 20, 2026
Early Bird Price Deadline: December 10, 2025
--- Call For Paper ---
The topics of interest for submission include, but are not limited to:
Multimodal Data and Social Computing
Multimodal Analysis of Online Communities
Multimodal Fusion Techniques
Multi-Source Data Verification
Cross-Modal Content Generation
Web Mining
Soft Computing
Mobile Computing
Web 3.0
Semantic Web
Opinion Mining
Modelling of Social Behaviour
Modeling Complex Social Systems
...
Digital Media Technology and Application
Visual Information Processing
Visual Image System
Virtual, Augmented, and Mixed Reality Production
Speech Recognition and Intelligent Interaction
Scene Modeling
Multimodal Image Fusion
Immersive and Interactive Media Experiences
Image Processing
Audio and Video Content Understanding and Analysis
Adaptive Video Streaming
3D Reconstruction and Rendering
3D Audio and Spatial Sound
...
Artificial Intelligence in Digital Media
Generative Artificial Intelligence
Graph Convolutional Networks
Time Series Forecasting for Web Data
Text Categorization
Image Generation and Manipulation
Human-AI Collaboration
Deepfake Detection and Prevention
Deep Learning
Voice and Speech Processing LLMs
Trend Tracking
Trend Identification
Topic Recognition
...
--- Publication ---
All papers, both invited and contributed, will be reviewed by two or three experts from the committees. After a careful reviewing process, all accepted papers of ICAIDS 2026 will be published in Conference Proceedings and submitted to EI Compendex, Scopus and ACM Digital Library for indexing.
--- Important Date ---
Submission Deadline: January 1, 2026
Registration Deadline: January 15, 2026
Conference Dates: January 30- February 1, 2026
--- Paper Submission ---
Please send the full paper(word+pdf) to Submission System:
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Dear Dayu Zhou , you can also share this invitation on the Researcher Collab platform. It’s designed for academics worldwide to connect and collaborate. You can create a collab call and reach potential contributors easily. Join our community: www.researchercollab.com
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Ontolgies and knowledge graphs can be included as representative of symbolic paradigm in AI. While Topological IA is a very recent term (July current year), its components are not: topological deep learning, topological data analysis, etc. Can you imagine a term representing a concept including all those fields, subfields mentioned above?
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@Nagaiah Goud Palleria Which one?
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Three years ago my first book got published as a co editor in last three years I have coordinated with editors and writers to proof and complete 55 books
1. Hassan, A., Dutta, P. K., Gupta, S., Mattar, E., & Singh, S. (Eds.). (2024). Human-centered approaches in Industry 5.0: Human–machine interaction, virtual reality training, and customer sentiment analysis (369 pp.). IGI Global. https://www.igi-global.com/book/human-centered-approaches-industry/333621
Thematic overview: Explores Industry 5.0 from a human-centric lens, focusing on ergonomics of human–machine collaboration, VR/AR-based training ecosystems, and AI-driven sentiment analysis to personalize industrial services and experiences.
2. Hassan, A., Prasad, V. K., Bhattacharya, P., Dutta, P., & Damaševičius, R. (Eds.). (2024). Federated learning and AI for Healthcare 5.0 (391 pp.). IGI Global. https://www.igi-global.com/book/federated-learning-healthcare/326124
Thematic overview: Covers federated learning pipelines and privacy-preserving AI architectures for Healthcare 5.0, highlighting real-world use cases in distributed hospitals, edge–cloud integration, and secure clinical decision support.
3. Hassan, A., Dutta, P. K., Gupta, S., Mattar, E., & Singh, S. (Eds.). (2024). Emerging technologies in digital manufacturing and smart factories (291 pp.). IGI Global. https://www.igi-global.com/book/emerging-technologies-digital-manufacturing-smart/325239
Thematic overview: Examines digital manufacturing building blocks—IIoT, CPS, digital twins, and robotics—showing how smart factories leverage data, automation, and AI to achieve resilient and adaptive production.
4. Hassan, A., Prasad, V. K., Bhattacharya, P., Dutta, P. K., & Damaševičius, R. (Eds.). (2024). Pioneering smart Healthcare 5.0 with IoT, federated learning, and cloud security (352 pp.). IGI Global. https://www.igi-global.com/book/pioneering-smart-healthcare-iot-federated/333616
Thematic overview: Integrates IoT sensing, federated analytics, and secure cloud infrastructures to architect smart Healthcare 5.0 systems with robust data governance and patient-centric intelligence.
5. Raj, P., Dutta, P. K., Chong, P. H. J., Song, H. H., & Zaitsev, D. A. (Eds.). (2025). Applied graph data science: Graph algorithms and platforms, knowledge graphs, neural networks, and applied use cases. Elsevier. https://shop.elsevier.com/books/applied-graph-data-science/raj/978-0-443-29654-3
Thematic overview: Surveys the full stack of graph data science—from classical algorithms and graph databases to GNNs and knowledge graphs—with applied case studies in telecom, finance, cybersecurity, and recommendation.
6. Bhardwaj, R., Dutta, P. K., Raj, P., Pandey, A. K., Saini, K., González Briones, A., & Kaabar, M. K. A. (Eds.). (2024). Hybrid information systems: Non-linear optimization strategies with artificial intelligence. De Gruyter. https://www.degruyter.com/document/doi/10.1515/9783111331133/html
Thematic overview: Focuses on AI-powered, non-linear optimization methods for hybrid information systems, addressing scheduling, resource allocation, and decision-making in complex cyber–physical environments.
7. Thaichon, P., Dutta, P. K., Raj, P., & Gupta, S. (Eds.). (2024). Technology and luxury hospitality (1st ed., 334 pp.). Routledge. https://www.taylorfrancis.com/books/edit/10.4324/9781003488248/
Thematic overview: Analyses the intersection of luxury hospitality and emerging technologies, covering digital guest journeys, data-driven personalization, revenue optimization, and brand positioning.
8. Hassan, A., Bhattacharya, P., Tikadar, S., Dutta, P. K., & Sagayam, M. (Eds.). (2024). Lightweight digital trust architectures in the Internet of Medical Things (IoMT) (448 pp.). IGI Global. https://www.igi-global.com/book/lightweight-digital-trust-architectures-internet/331762
Thematic overview: Proposes cryptographic and protocol-level solutions for lightweight trust, identity, and privacy in constrained IoMT devices and heterogeneous medical networks.
9. Khang, A., Dutta, P. K., Gupta, S., Ayedee, N., & Chatterjee, S. (Eds.). (2024). Revolutionizing the AI-digital landscape: A guide to sustainable emerging technologies for marketing professionals (366 pp.). Productivity Press/Routledge. https://www.routledge.com/Revolutionizing-the-AI-Digital-Landscape-A-Guide-to-Sustainable-Emerging/Khang-Dutta-Gupta-Ayedee-Chatterjee/p/book/9781032688299
Thematic overview: Bridges AI, martech, and sustainability, demonstrating how responsible data, automation, and analytics reshape marketing strategy, consumer engagement, and brand equity.
10. Ben Youssef, A., Dutta, P. K., Doshi, R., & Sajnani, M. (Eds.). (2024). AI, blockchain, and metaverse in hospitality and tourism Industry 4.0: Case studies and analysis (344 pp.). Chapman & Hall/CRC. https://www.taylorfrancis.com/books/edit/10.1201/9781032706474/
Thematic overview: Presents global case studies showing how AI, blockchain, and metaverse environments transform hospitality and tourism operations, experience design, and ecosystem partnerships.
11. Hassan, A., Bhattacharya, P., Dutta, P. K., Verma, J. P., & Kundu, N. K. (Eds.). (2024). Quantum computing and supply chain management: A new era of optimization (310 pp.). IGI Global. https://www.igi-global.com/book/quantum-computing-supply-chain-management/338306
Thematic overview: Explores quantum-inspired and quantum-native optimization for logistics, routing, inventory, and risk, with a strong focus on algorithmic design and real-world supply chain scenarios.
12. Misra, S., Dutta, P. K., Jadeja, R., & Mittal, M. (Eds.). (2024). Practical approaches to agile project management (467 pp.). IGI Global. https://www.igi-global.com/book/practical-approaches-agile-project-management/335468
Thematic overview: Provides actionable frameworks, methods, and case evidence for scaling agile and hybrid project management across software, engineering, and organizational transformation contexts.
13. Dutta, P. K., Raj, P., Sundaravadivazhagan, B., & Pon Selvan, C. (Eds.). (2024). Artificial intelligence solutions for cyber-physical systems (232 pp.). Auerbach/CRC Press. https://www.taylorfrancis.com/books/edit/10.1201/9781032694375/
Thematic overview: Focuses on AI-driven perception, control, and anomaly detection in CPS, spanning smart grids, transport, manufacturing, and mission-critical infrastructure.
14. Rabie, K., Karthik, C., Chowdhury, S., & Dutta, P. K. (Eds.). (2023). Deep learning in medical image processing and analysis (376 pp.). IET. https://shop.theiet.org/deep-learning-in-medical-image-processing-and-analysis
Thematic overview: Surveys CNNs, transformers, and hybrid models for segmentation, classification, prognosis, and multi-modal analysis in medical imaging workflows.
15. Patnaik, S., Hamad, A. M., Paul, D., Dutta, P. K., & Shafiq, M. (Eds.). (2024). Nutrition controversies and advances in autoimmune disease (2 vols., 855 pp.). IGI Global. https://www.igi-global.com/book/nutrition-controversies-advances-autoimmune-disease/340698
Thematic overview: Synthesizes clinical, biochemical, and nutritional perspectives to unpack contentious issues and emerging interventions in autoimmune disorders.
16. Raj, P., Rocha, Á., Singh, S. P., Dutta, P. K., & Sundaravadivazhagan, B. (Eds.). (2024). Building embodied AI systems: The agents, the architecture principles, challenges, and application domains. Springer. https://link.springer.com/book/9783031682551
Thematic overview: Addresses architectures, sensing, control, and deployment of embodied AI agents across robotics, autonomous systems, and interactive environments.
17. Dutta, S., Rocha, Á., Dutta, P. K., Bhattacharya, P., & Singh, R. (Eds.). (2024). Advances in data analytics for influencer marketing: An interdisciplinary approach. Springer. https://link.springer.com/book/10.1007/978-3-031-65727-6
Thematic overview: Explores analytics pipelines, social graph modeling, and metrics for understanding and optimizing influencer-driven campaigns.
18. Raj, P., Rocha, Á., Dutta, P. K., Fiorini, M., & Prakash, C. (Eds.). (2024). Illustrating digital innovations towards intelligent fashion: Leveraging information system engineering and digital twins for efficient design of next-generation fashion. Springer. https://link.springer.com/book/9783031710513
Thematic overview: Marries digital twins, information systems, and AI to reimagine fashion design, production planning, and sustainability in fashion ecosystems.
19. Bhattacharya, P., Liu, H., Dutta, P. K., Rodrigues, J. J. P. C., & Sethi, G. (Eds.). (2025). Revolutionizing Healthcare 5.0: The power of generative AI – Advancements in patient care through generative AI algorithms. Springer. https://link.springer.com/book/9783031757709
Thematic overview: Focuses on generative models for clinical documentation, imaging augmentation, decision support, and personalized patient interaction in Healthcare 5.0.
20. Dutta, P. K., Hamad, A., Haghi, A. K., & Prabhakar, P. K. (Eds.). (2025). Food and Industry 5.0: Transforming the food system for a sustainable future. Springer. https://link.springer.com/book/9783031767579
Thematic overview: Connects Industry 5.0 paradigms with food production, traceability, safety, and circular economy strategies in global food systems.
21. Dutta, P. K., Goyal, S. B., Verma, C., & Kannan, H. (Eds.). (n.d.). DeFi adoption: Digital transformation in the energy and utilities industry. Apple Academic Press. https://www.appleacademicpress.com/defi-adoption-in-the-energy-and-utilities-industry-toward-sustainable-digital-transformation/9781779642394
Thematic overview: Explores how DeFi, tokenization, and blockchain-based platforms can transform energy markets, billing, and sustainable utility services.
22. Aguilar-Zárate, P., Dutta, P. K., Gupta, S., & Haghi, A. K. (Eds.). (n.d.). Energy smart farming for sustainable management of natural resources. Apple Academic Press. https://appleacademicpress.com/energy-smart-farming-for-sustainable-management-of-natural-resources-/1613
Thematic overview: Examines digital and energy-smart farming practices to optimize water, soil, and energy use while boosting resilience and productivity.
23. Youssef, A. B., Raj, P., Bhattacharya, P., & Dutta, P. K. (Eds.). (n.d.). Green energies: Synergetic approaches to energy, technology, and sustainability. Apple Academic Press. https://www.appleacademicpress.com/green-energies-synergetic-approaches-to-energy-technology-and-sustainability/9781998511167
Thematic overview: Provides a multi-disciplinary view of green energy technologies, policy enablers, and socio-technical pathways to sustainability.
24. Bhattacharya, P., Prasad, V. K., Hemanth, D. J., Dutta, P. K., Kathait, A., & Dănciulescu, D. (Eds.). (2024). Secure big-data analytics for emerging healthcare in 5G and beyond: Concepts, paradigms, and solutions. IET. https://doi.org/10.1049/PBHE063E
Thematic overview: Focuses on secure, scalable big data frameworks that exploit 5G/6G capabilities for real-time analytics in healthcare.
25. Damaševičius, R., Dutta, P. K., Bacanin Dzakula, N., Vajjhala, N. R., & Desai, D. (Eds.). (2024). Customer insights into innovation strategies for distributed market needs. Cambridge Scholars Publishing. https://www.cambridgescholars.com/product/978-1-0364-1852-6
Thematic overview: Examines how data-driven customer insights guide innovation and product–service strategies in distributed and diverse markets.
26. Thaichon, P., Dutta, P. K., Haghi, A. K., & Dutta, S. (Eds.). (2024). Digital disruption in hospitality, AI and emerging technologies: A roadmap to personalized experiences, enhanced operations, and revenue growth. Emerald Publishing. https://bookstore.emerald.com/digital-disruption-in-hospitality-ai-and-emerging-technologies-hb-9781836087977.html
Thematic overview: Provides a roadmap for leveraging AI and emerging technologies to achieve hyper-personalization, operational efficiency, and new revenue models in hospitality.
27. Thaichon, P., Dutta, P. K., Haghi, A. K., & Dutta, S. (Eds.). (2025). Digital disruption in hospitality, sustainable hospitality: A global perspective on people, planet, and profit. Emerald Publishing. https://bookstore.emerald.com/digital-disruption-in-hospitality-sustainable-hospitality-hb-9781836623618.html
Thematic overview: Frames hospitality transformation through sustainability, showcasing ESG-aligned business models, green operations, and responsible tourism.
28. Chelliah, P. R., Dutta, P. K., Kumar, A., Santibanez Gonzalez, E. D. R., Mittal, M., & Gupta, S. (Eds.). (2025). Generative artificial intelligence in finance: Large language models, interfaces, and industry use cases to transform accounting and finance processes. Scrivener Publishing. https://doi.org/10.1002/9781394271078
Thematic overview: Explores generative AI and LLM-driven tools for financial reporting, audit, risk, and compliance, emphasizing explainability and governance.
29. Dutta, P. K., Gupta, S., Kashyap, S., Gehlot, A., Karmakar, R., & Bhattacharya, P. (Eds.). (2025). Emotional intelligence in the digital era: Concepts, frameworks, and applications. Routledge. https://www.routledge.com/Emotional-Intelligence-in-the-Digital-Era-Concepts-Frameworks-and-Applications/Dutta-Gupta-Kashyap-Gehlot-Karmakar-Bhattacharya/p/book/9781032703695
Thematic overview: Connects EI theory with digital workplaces, AI interfaces, and remote collaboration, outlining tools to cultivate emotionally intelligent organizations.
30. Dutta, P. K., Ricciuti, M., Bogrekci, I., & Suseelan, S. (Eds.). (2025). Digital transformation in aviation industry operations: Innovations and sustainable solutions. Routledge. https://www.routledge.com/Digital-Transformation-in-Aviation-Industry-Operations-Innovations-and-Sustainable-Solutions/Dutta-Ricciuti-Bogrekci-Suseelan/p/book/9781032799568
Thematic overview: Discusses digital technologies for optimizing aviation operations, passenger services, safety, and sustainability in airlines and airports.
31. Dutta, P. K., Bhattacharya, P., Verma, J. P., Chopra, A., Kundu, N. K., & Aurangzeb, K. (Eds.). (2025). Quantum computing and artificial intelligence in logistics and supply chain management (Chapman & Hall/CRC). https://www.taylorfrancis.com/books/edit/10.1201/9781003498292/
Thematic overview: Combines AI and quantum methods to tackle complex logistics problems, from multi-echelon planning to resilient, data-driven supply networks.
32. Dutta, P. K., Singh, B., Kaunert, C., & Sciacovelli, A. L. (Eds.). (2025). Security intelligence in the age of AI: Navigating legal and ethical frameworks [Kindle ed.]. Emerald Publishing. https://bookstore.emerald.com/security-intelligence-in-the-age-of-ai-hb-9781836081579.html
Thematic overview: Examines AI-enabled security intelligence alongside legal, ethical, and policy challenges in national security, law enforcement, and corporate risk.
33. Dutta, P. K., Ricciuti, M., Bogrekci, I., & Suseelan, S. (Eds.). (2025). Airline customer experience: Digitalization in passenger services (1st ed.). Routledge. https://www.taylorfrancis.com/books/edit/10.4324/9781003625100/
Thematic overview: Focuses on digital touchpoints, CX metrics, and service innovation in airline passenger experience management.
34. Yu, P., Dutta, P. K., Padhi, A., Das Mitra, S., & Sharma, V. K. (Eds.). (2025). AI and innovation in HRM: The future of strategic HR in the service economy (1st ed.). Routledge. https://www.routledge.com/AI-and-Innovation-in-HRM-The-Future-of-Strategic-HR-in-the-Service-Economy/Dutta-Padhi-Das-Sharma-Yu/p/book/9781032862750
Thematic overview: Details AI-driven talent analytics, HR automation, and strategic workforce management for service-centric organizations.
35. Raj, P., Sharma, D. P., Dutta, P. K., Siva Prasad, B. V. V., & Soundarabai, P. B. (Eds.). (2025). Artificial intelligence (AI) for IT energy efficiency and green AI for environment sustainability (1st ed.). Springer. https://link.springer.com/book/9783031894190
Thematic overview: Links AI with energy-aware IT operations, model efficiency, and environmentally sustainable computing practices.
36. Sbai, A., Khan, M., Dutta, P. K., Davim, J. P., & Edeh, M. O. (2025). Transformative role of transformer models in healthcare. IGI Global.
Thematic overview: Surveys transformer-based architectures for clinical NLP, imaging, multimodal fusion, and decision support across healthcare pathways.
37. Kumar, A., Ortiz-Rodriguez, F., Braga de Vasconcelos, J., Dutta, P. K., Saini, H. K., & Rathore, P. S. (Eds.). (2025). Adversarial deep generative techniques for early diagnosis of neurological conditions and mental health practices: Theoretical insights with practical applications. Springer. https://link.springer.com/book/10.1007/978-3-031-91147-7
Thematic overview: Explores adversarial and generative models for early detection, prognosis, and intervention in neurology and mental health.
38. Mohanty, S. N., Rocha, Á., & Dutta, P. K. (Eds.). (2025). Artificial intelligence in oncology: Cancer diagnosis and treatment, medical imaging, and personalized medicine. Springer Nature. https://link.springer.com/book/10.1007/978-3-031-94302-7
Thematic overview: Integrates AI tools for cancer screening, imaging, molecular profiling, and personalized therapeutic decision-making.
39. Singh, S. K., Jadeja, R. B., Khanna, A., Dutta, P. K., & Virdee, B. (Eds.). (2025). Security paradigms in 6G smart cities and IoT ecosystems: Navigating the future. CRC Press. https://www.routledge.com/Security-Paradigms-in-6G-Smart-Cities-and-IoT-Ecosystems-Navigating-the-Future/KumarSingh-Jadeja-Khanna-Dutta-Virdee/p/book/9781032913599
Thematic overview: Addresses security architectures, privacy, and trust frameworks for 6G-enabled smart cities and dense IoT environments.
40. Shafik, W., Ben Youssef, A., Pon Selvan, C., & Dutta, P. K. (Eds.). (2025). Sustainable healthcare systems in Africa: Technologies, practices, and management. CRC Press. https://www.routledge.com/Sustainable-Healthcare-Systems-in-Africa-Technologies-Practices-and-Management/Shafik-Youssef-Selvan-Dutta/p/book/9781032870205
Thematic overview: Examines socio-technical, managerial, and policy aspects of building sustainable, technology-enabled healthcare systems in Africa.
41. Dutta, P. K., Singh, B., Jain, V., Kaunert, C., & Vig, K. (Eds.). (2025). Artificial intelligence and human rights, democracy, and the rule of law. CRC Press. https://www.routledge.com/Artificial-Intelligence-and-Human-Rights-Democracy-and-the-Rule-of-Law/KumarDutta-Singh-Jain-Kaunert-Vig/p/book/9781032796635
Thematic overview: Explores how AI systems intersect with human rights, democratic institutions, surveillance, and rule-of-law safeguards.
42. Dutta, P. K., & Trivedi, S. (Eds.). (2026). Rural futures: Innovation, resilience, and sustainable development. Jenny Stanford Publishing/Routledge. https://www.routledge.com/Rural-Futures-Innovation-Resilience-and-Sustainable-Development/Dutta-Trivedi/p/book/9789815129939
Thematic overview: Presents innovation and resilience pathways for rural communities, spanning agriculture, livelihoods, digital inclusion, and governance.
43. Dutta, P. K., Singh, R., Haghi, A. K., & Hamad, A. A. (Eds.). (2026). Harnessing AI to reshape the future of agriculture. Springer Nature Switzerland.
Thematic overview: Focuses on AI-driven agritech solutions—remote sensing, decision support, robotics, and climate-smart applications—for next-generation agriculture.
44. Shafik, W., Dutta, P. K., & Pattanaik, P. (Eds.). (2025). The convergence of federated learning and Healthcare 5.0 and beyond: A new era of intelligent health systems. Springer.
Thematic overview: Explores federated learning architectures and protocols powering distributed, privacy-aware Healthcare 5.0 and future health ecosystems.
45. Dutta, P. K., & Trivedi, S. (Eds.). (2025). Agripreneurship, digital inclusion and sustainability: Rural innovation and growth in the Global South. CABI Publishing.
Thematic overview: Examines agripreneurship models, digital platforms, and sustainability practices driving rural economic growth and social inclusion.
46. Garg, H., Dutta, P. K., Gnanasankaran, N., & Chowdhury, S. (Eds.). (2026). Harnessing artificial intelligence to ensure diverse global teams. Academic Press.
Thematic overview: Investigates AI-enabled tools and frameworks to support, manage, and enhance diversity, equity, and inclusion in global workforces.
47. Dutta, P. K., Raj, P., Bhattacharya, P., Budhiraja, I., & Kaplun, D. (Eds.). (2026). Signal processing roadmap: Technologies, applications, and future directions. Morgan Kaufmann.
Thematic overview: Provides a forward-looking map of signal processing theory and applications, from classical domains to AI-native and quantum-era challenges.
48. Agerstam, M., Dutta, P. K., Sundaravadivazhagan, B., Nagasubramanian, G., & Raj, P. (Eds.). (2026). Cloud-native architecture (CNA) and artificial intelligence (AI) for the future of software engineering: The principles, patterns, platforms and practices (Vol. 141). Elsevier. https://shop.elsevier.com/books/cloud-native-architecture-cna-and-artificial-intelligence-ai-for-the-future-of-software-engineering-the-principles-patterns-platforms-and-practices/agerstam/978-0-443-22401-0
Thematic overview: Bridges CNA patterns with AI-driven development, covering microservices, DevOps, MLOps, and scalable intelligent software systems.
49. Dutta, P. K., Krishnan, S., Bhattacharya, P., Amesho, K. T. T., Rocha, Á., & Haghi, A. K. (Eds.). (2026). AI, blockchain and social network on urban crisis management: Leveraging emerging technologies for disaster response and resilience in smart cities (Vol. 142). Academic Press. https://shop.elsevier.com/books/ai-blockchain-and-social-network-on-urban-crisis-management-leveraging-emerging-technologies-for-disaster-response-and-resilience-in-smart-cities/dutta/978-0-443-31368-4
Thematic overview: Explores AI analytics, blockchain, and social network intelligence for crisis detection, coordination, and resilience in urban environments.
50. Trivedi, S., Dutta, P. K., Ananth, C., & Kumar, A. (Eds.). (2026). Green policies and augmented reality in InsurTech: Catalysts for sustainability and innovation. Emerald Publishing.
Thematic overview: Investigates how green policy frameworks and AR technologies transform InsurTech products, risk assessment, and customer engagement for sustainability.
51. Pattanaik, P., Dutta, P., & Mohanty, S. (Eds.). (2026). Multimedia and AI applications for sustainable smart mining and energy. IGI Global.
Thematic overview: Discusses multimedia sensing and AI analytics to improve safety, efficiency, and environmental performance in mining and energy sectors.
52. Dutta, P. K., Nguyen, K., Gayathri, N., Soundarabai, P. B., & Raj, P. (Eds.). (2026). Artificial intelligence (AI) for climate change mitigation: Key motivations and combating methods. Cambridge Scholars Publishing. https://cambridgescholars.com/product/978-1-0364-6095-2/
Thematic overview: Focuses on AI methods for mitigation—emissions monitoring, climate modeling, optimization of energy systems, and climate-smart policies.
53. Kautish, S., Dutta, P. K., Nagpal, N., Karantharaj, P., Bhattacharya, P., & Gupta, V. P. (Eds.). (2025). Digital transformation and innovation in higher education: Faculty development and student-centric paradigms (Advances in Data Science Driven Technologies; Vol. 6). Bentham Science Publishers. https://doi.org/10.2174/97988988112971250601
Thematic overview: Explores data-driven transformation of higher education with a focus on faculty upskilling, student-centered pedagogy, and analytics-informed governance.
54. Kautish, S., Dutta, P. K., Nagpal, N., Karantharaj, P., Bhattacharya, P., & Gupta, V. P. (Eds.). (2025). Data-informed leadership in higher education: An executive playbook for institutional excellence (Advances in Data Science Driven Technologies; Vol. 5). Bentham Science Publishers. https://doi.org/10.2174/97988988112661250501
Thematic overview: Provides an executive playbook for data-informed leadership in universities, covering strategy, quality assurance, and performance management.
55. Dutta, P. K., Singh, B., Paliktzoglou, V., Ibeh, L., & Prianto, A. L. (Eds.). (2026). Digital education for a sustainable future: Technological integration, SDGs, and empowering future generations (Sustainable Development Goals Series). Palgrave Macmillan. https://link.springer.com/book/9783032154323
Thematic overview: Links digital education strategies with SDGs, focusing on inclusive pedagogy, technology integration, and empowerment of future learners.
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book printed in makret ?
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n large-scale, high-safety critical systems
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The most significant challenges and practical limitations of implementing purely deep-learning-based control strategies include the need for large amounts of data and high computational costs. Deep learning methods also face interpretability issues, such as vulnerabilities to data quality problems and bias. Biases in the training data may be inadvertently learned and perpetuated, potentially leading to unfair or unreliable control decisions.
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In the fields of genomic selection and mating optimization, current research often focuses on exploring genotype-to-phenotype relationships and improving mating strategies. I am wondering whether there has been any research on predicting offspring genotypes based on parental genotypes, and whether it would be feasible to use artificial intelligence to build a model for this purpose.
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Yes. It is a Sequence-to-Sequence architecture. You can use any Seq2Seq transformer model. For the best reference for this work, you can refer to “Cell2Sentence: Teaching Large Language Models the language of biology” paper. They give gene sequences to LLMs to perform multiple different types of prediction and analysis.
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How does generative AI technology help in scientific research, developing research projects, conducting scientific research, collecting research data, processing data collected from scientific research and developing the results of research work?
From many data, situations, examples, etc., it is clear that generative artificial intelligence (AI) technology significantly supports scientific research at every stage of its implementation, from concept design to the development of results. In the preparation phase of research projects, generative AI can help analyze scientific literature quickly and comprehensively. Natural language processing algorithms make it possible to search for relevant publications, identify key trends in the literature and pinpoint research gaps. This allows researchers to create more precise research questions and legitimate hypotheses, which is crucial to the quality and value of research. But does generative artificial intelligence technology help research mainly in terms of processing large data sets in a relatively short period of time, or is it also helpful in many other issues of ongoing scientific research? And how about the ethics and objectivity of conducting scientific research? Does generative artificial intelligence technology help with these issues as well?
I described the key issues of opportunities and threats to the development of artificial intelligence technology in my article below:
OPPORTUNITIES AND THREATS TO THE DEVELOPMENT OF ARTIFICIAL INTELLIGENCE APPLICATIONS AND THE NEED FOR NORMATIVE REGULATION OF THIS DEVELOPMENT
Please write what you think in this issue? Do you see rather threats or opportunities associated with the development of artificial intelligence technology?
And what is your opinion on this topic?
What is your opinion on this issue?
Please answer,
I invite everyone to join the discussion,
Thank you very much,
Warm regards,
I would like to invite you to join me in scientific cooperation,
Dariusz Prokopowicz
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AlphaFold is five years old — these charts show how it revolutionized science
Since it was unveiled in 2020, Google DeepMind’s game-changing AI tool has helped researchers all over the world to predict the 3D structures of hundreds of millions of proteins...
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  1. The trade-off between complex model accuracy and the need for rigorous Explainable AI (XAI) is a central and unresolved dilemma in high-stakes prediction. Generally, as one moves toward more complex Deep Learning architectures, such as deep Convolutional Neural Networks (CNNs) for image diagnostics or vast Transformer models for text analysis, the potential for maximal predictive accuracy increases due to their capacity to capture highly intricate and non-linear data patterns. However, this complexity inherently leads to the "black box" problem: the model's decision-making process becomes opaque, making it virtually impossible for human experts to trace the path from input data to the final prediction.
  2. In high-stakes domains—like breast cancer diagnosis, where a life may depend on the outcome, or financial auditing, where large sums are involved—this lack of transparency creates an ethical, legal, and trust deficit. Decisions must be auditable, justifiable, and understandable to gain clinical or regulatory acceptance. Consequently, researchers often face a practical choice: deploy a simpler, inherently interpretable model (like a Decision Tree) which sacrifices a few percentage points of accuracy, or deploy the most accurate but opaque deep learning model. While Explainable AI (XAI) techniques (like SHAP or LIME) offer post-hoc explanations for complex models, these explanations are often approximations of the true internal logic and their fidelity can be unreliable, thus not fully resolving the fundamental trade-off. This tension forces a difficult balance where the pursuit of extreme accuracy often compromises the essential requirement for rigorous justification and trust.
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There is no tradeoff for complex model accuracy until your configuration variables and hyperparameters in your AI model have a correlation with your training accuracy. Any AI model is justifiable for your problem or project case study.
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So, https://paperswithcode.com no longer exist. It was a very convenient way to find repositories implementing research papers in ML.
What would be needed to replicate such website? they made their database available (as for now) https://github.com/paperswithcode/paperswithcode-data
Are there current alternatives?
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ResearchLit finds code repositories for collections of papers at a time. https://researchlit.com
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I am currently conducting research on integrating variational quantum algorithms with classical deep learning models to overcome the challenges of training high-dimensional networks. In my work, I am exploring whether quantum subroutines; such as quantum amplitude amplification or quantum natural gradient methods; can help speed up convergence and escape local minima more effectively than classical optimizers.
  • Specific issues: I’m concerned with the effects of barren plateaus, noise accumulation, and limited coherence times on variational quantum circuits used for optimization.
  • Research aspects: How do these hybrid approaches perform in terms of convergence rate and solution quality on realistic NISQ devices? Are there any demonstrated error mitigation techniques or circuit designs that help preserve gradient information in deep networks?
I would appreciate detailed theoretical analyses, simulation studies, or experimental benchmarks that compare these hybrid methods with traditional deep learning optimizers.
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I suggest working with synthetic data and code or vibe code to run and test those challenges using an easy to implement NISQ library such as Qiskit or Pennylane and see for yourself the progress and explore the performance scores across the hybrid as compare to different classical deep learning algorithms.
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What are the differences in taxation of companies and employees vis-à-vis analogous entities in which all employed workers have been replaced by artificial intelligence?
How does the system of taxation of income generated by business entities and their employees differ from analogous companies, businesses, financial institutions, etc., in which all employed workers have been replaced by artificial intelligence?
In a situation where in many service companies and many manufacturing companies, as part of the so-called cost optimisation and profitability improvement, a significant part, the majority of the employed workers or the entire workforce will be replaced by artificial intelligence technology, the tax revenue going to the state budget from income taxes of the previously employed workers and the amounts from para-taxes, contributions to the social security system and others will significantly decrease if the tax system is not applied modified and adapted to the fourth technological revolution currently taking place. In addition, a long-standing process of change in the demographic structure of society, known as ageing, is taking place in developed countries. This means a successive decrease in the number of people in many productive years against people who have already reached retirement age. This will further weaken the state's public finance system in the years to come. If, in the future, the state is to ensure convenient provision of public goods and services for the next generations of citizens, the social security system, the participatory pension system, etc. are to function effectively, the necessary changes, including in the area of fiscal policy, should already be introduced. However, the issue of shaping socio-economic policy, including fiscal policy, social policy, provision of public goods by the state to citizens, etc., may be a problem mainly in the short term (a few months) or medium term (up to a few years) instead of the long term (at least a few decades of time).
In view of the above, I address the following question to the esteemed community of scientists and researchers:
How does the system of taxation of the income generated by economic entities and the employees employed in these entities differ from the analogous companies, enterprises, financial institutions, etc., in which all employed employees have been replaced by artificial intelligence?
What is your opinion on this?
What is your opinion on this subject?
Please respond,
I invite you all to discuss,
Thank you very much,
The following articles are related to the above issues in some respects:
OPPORTUNITIES AND THREATS TO THE DEVELOPMENT OF ARTIFICIAL INTELLIGENCE APPLICATIONS AND THE NEED FOR NORMATIVE REGULATION OF THIS DEVELOPMENT
I invite you to scientific cooperation,
Best regards,
Dariusz Prokopowicz
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The Case for Taxing AI
If AI causes mass unemployment or severe fiscal shocks, elected officials and policymakers will need to act fast to limit the disruption. Fortunately, some of the most reliable and powerful options are also the most familiar.
Hardly a day goes by without new headlines about how AI is poised to transform the economy. Even if claims that “AI is the new electricity” prove to be exaggerated, we should still prepare for deep change. One of the most powerful and reliable mechanisms for ensuring that AI benefits society is also one of the most familiar: taxation...
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Mayores detalles
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Las herramientas de aprendizaje profundo basadas en IA se utilizan de forma sencilla y adaptada a los niños, lo que facilita el aprendizaje, no sustituye a los docentes. A continuación, se presenta una descripción general clara y práctica de cómo se utilizan estas herramientas. Resumen práctico de cómo se utilizan estas herramientas: 1. Los sistemas de IA utilizan modelos de aprendizaje profundo para comprender la velocidad de aprendizaje, los errores, las fortalezas y las debilidades de cada niño. 2. Asistentes de lectura y escritura con IA. 3. Implementar un sistema automatizado de evaluación y retroalimentación.
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What are the ethical challenges of applying deep learning models?
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For me, the ethical challenges of applying deep learning models start with the fact that these systems learn from data that is never completely neutral. If the dataset carries social, cultural, or historical biases, the model tends to reproduce them ( sometimes in ways that look objective, even when they aren’t). I find this particularly concerning in areas like healthcare or public services, where a biased prediction can affect real people’s lives.
Another challenge I think about is transparency. Deep learning models are often treated as “black boxes,” and it’s not always clear why they arrive at a particular decision. That lack of interpretability can make it harder to identify errors or unfair patterns, and it also raises questions about accountability: if something goes wrong, who is responsible — the developers, the dataset, or the organization deploying the model?
There’s also the issue of data privacy. Training large models usually requires collecting and storing massive amounts of information, and this increases the risk of misuse or unauthorized access. I feel that organizations sometimes rush to adopt AI without fully considering whether they actually need all the data they collect.
Finally, there’s the broader ethical question of dependence. When decisions are increasingly delegated to automated systems, we risk weakening human judgment and reducing complex situations to numerical patterns. For me, the challenge is learning how to take advantage of deep learning without replacing the human sense of context, empathy, and nuance. Do you agree? please let me know your point of view regarding this question.
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in large-scale, high-safety critical systems
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Practical Limitations in Control Systems
The transition from a simulated environment (where DL/DRL often excels) to a real-world control system introduces critical constraints.
1. Safety and Robustness Guarantees
  • Unsafe Exploration: DRL agents learn through trial and error. In a real-world physical system (like a robot or a chemical plant), random or suboptimal actions during the initial training phases can lead to system damage, costly shutdowns, or safety hazards. Traditional control methods have well-defined stability guarantees, which DL strategies often lack.
  • Generalization Failure (Sim-to-Real Gap): A model trained in a simulator may fail when deployed on the real hardware due to unmodeled physics, sensor noise, latency, or small differences in physical properties. DL models can be brittle and highly sensitive to small, unforeseen variations in the operating environment.
  • Adversarial Attacks: The control policy can be manipulated by small, intentional perturbations (noise) in the sensory input, potentially leading to catastrophic failure, which is unacceptable in safety-critical applications.
2. Sample Inefficiency and Data Requirements
  • Massive Data/Sample Need: DL control, especially DRL, requires a vast number of "samples" (interactions with the environment) to converge to an optimal policy. Collecting this volume of data from a real, physical system is time-consuming, expensive, and impractical.
  • Slow Training Time (Execution Time): Even when data is available, training the deep neural network policy (which can involve millions of parameters) is computationally intensive and can take days or weeks, requiring high-performance hardware (GPUs/TPUs). This dramatically slows down the design and iteration cycle compared to tuning a traditional controller.
💻 Fundamental Deep Learning Challenges
Beyond control-specific issues, DL strategies inherit the core challenges of deep learning itself.
3. "Black-Box" Interpretability and Trust
  • Lack of Transparency: Deep neural networks are complex, non-linear functions that operate as "black boxes." It is extremely difficult to explain why the controller chose a specific action or, more critically, why it failed.
  • Regulatory Barriers: For applications in highly regulated industries (e.g., aerospace, medical devices), the inability to provide a human-understandable explanation for a decision can be a major regulatory and legal roadblock.
4. Computational and Resource Constraints
  • High Latency: While DL models can be fast during inference, their size can still introduce latency (delay) in the control loop, especially when the controller needs to run on limited resources (e.g., embedded systems on a drone or an edge device). Real-time control often demands response times in the order of milliseconds.
  • Hardware Dependency: Developing and deploying DL control requires specialized computational infrastructure (high-end GPUs, cloud resources, or custom edge hardware), increasing the cost and complexity of implementation.
5. Reward/Cost Function Design
  • Reward Shaping Difficulty (in DRL): The control behavior is entirely dictated by the reward function. Designing a function that is simple enough for the agent to learn from, yet accurately captures all desired behaviors (performance, stability, and safety constraints), is an extremely difficult and often manual engineering task. Flaws in the reward function lead to unintended and sometimes dangerous control policies.
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IEEE-2025 5th International Conference on Computational Modeling, Simulation and Data Analysis (CMSDA 2025) will be held on December 12-14, 2025 in Qingdao, China.
Paper Submission: https://ais.cn/u/BVryAj
---𝗜𝗺𝗽𝗼𝗿𝘁𝗮𝗻𝘁 𝗗𝗮𝘁𝗲𝘀---
Full Paper Submission Date: November 25, 2025
Registration Deadline: December 5, 2025
Full Paper Submission Date: December 5, 2025
Conference Dates: December 12-14, 2025
---𝗖𝗮𝗹𝗹 𝗙𝗼𝗿 𝗣𝗮𝗽𝗲𝗿𝘀---
The topics of interest for submission include, but are not limited to:
Topic 1: Modeling and simulation
Model Verification and Validation
Intelligent and Expert Systems
Computer Network Modeling and Analysis
Circuit Simulation
Discrete Event and Data Simulation
Industrial Simulation Modeling
Robot System Simulation
Internet of Things Modeling
Education Modeling
Material Engineering Simulation
Power System Simulation
Fuzzy Modeling
Process Simulation and Modeling
Performance Evaluation and Modeling
Mobile System Modeling
......
Topic 2: Data Analysis
Data Mining
Big Data Visualization
Computer Simulation
Model Optimization
Model Visualization
Modeling Analysis
Linear Regression Analysis
Multimodal Interactive
Deep Learning
Data Classification
Edge Computing
Mobile Computing
---𝗦𝗽𝗲𝗮𝗸𝗲𝗿𝘀---
  • Prof. Nikhil R. Pal, Indian Statistical Institute, Indian,IEEE Fellow, Fellow of the Indian National Science Academy
  • Prof. Jian Wang, China University of Petroleum (East China), China,IEEE Senior Member
---𝗣𝘂𝗯𝗹𝗶𝗰𝗮𝘁𝗶𝗼𝗻---
Submitted paper will be peer reviewed by conference committees, and accepted papers after registration and presentation will be published in the IEEE(ISBN: 979-8-3315-8795-6), which will be submitted for indexing by IEEE Xplore, EI Compendex, Scopus.
--- 𝗣𝗮𝗽𝗲𝗿 𝗦𝘂𝗯𝗺𝗶𝘀𝘀𝗶𝗼𝗻---
Please send the full paper(word+pdf) to Submission System:
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Hi, Adnan Majeed. More details about the fees please vistit the official website: https://ais.cn/u/z2e2um.
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  • Which deep learning architecture works best for burn image classification? Is deep learning can works with limited dataset?
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Convolutional Neural Networks (CNNs) are typically the best deep learning architecture due to their ability to effectively capture spatial hierarchies in images. CNNs excel at feature extraction through their convolutional layers, which help identify patterns such as texture, color, and shape specific to burn injuries. Architectures like ResNet or EfficientNet can further enhance performance by allowing for deeper networks with improved accuracy while managing overfitting. Additionally, transfer learning using pre-trained models on large image datasets can significantly improve classification results, especially when labeled data for burns is limited. Overall, CNNs, particularly with transfer learning, provide a robust solution for accurately classifying burn images.
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The 7th International Conference on Intelligent Control, Measurement and Signal Processing (ICMSP 2025) will be held in Xi‘an, China during November 28-30, 2025.
𝗖𝗼𝗻𝗳𝗲𝗿𝗲𝗻𝗰𝗲 𝗪𝗲𝗯𝘀𝗶𝘁𝗲: https://ais.cn/u/EZFzUn
---𝗖𝗮𝗹𝗹 𝗳𝗼𝗿 𝗽𝗮𝗽𝗲𝗿𝘀---
The topics of interest for submission include, but are not limited to:
◕ Intelligent Control and Automation
(1) Control Theory and Application
(2) Intelligent and Optimal Control System
(3) System Science and System Engineering
(4) System Modeling, Analysis and Synthesis
(5) Power system and its automation
(6) Power electronics and power drive
◕ Artificial Intelligence and Robots
(1) Artificial Intelligence and Deep Learning
(2) Statistical learning and pattern recognition
(3) Computer Vision
(4) Robots
(5) Application of Big Data and Artificial Intelligence in Oil and Gas Field Development
(6) Oilfield digitalization, automation and intellectualization
◕ Signal and Information Processing
(1) New methods and techniques of logging signal processing
(2) Signal Acquisition and Processing of Geophysical Exploration Instruments
(3) New methods and technologies of digital signal processing
(4) Real-time signal and random signal acquisition and processing technology
(5) Array Signal Processing Technology
(6) Advanced filtering technology
◕ Photoelectric Detection and Measurement Technology
(1) The theory and technology of optical fiber sensing
(2) Distributed Fiber and Grating Measurement Technology
(3) Visible and Infrared Imaging and Image Processing
(4) Electromagnetic measurement and testing
(5) Laser measurement technology and its application
(6) X-ray detection technology and its application
◕ Measurement and Control Technology and Intelligent Instruments
(1) Rotary steering drilling equipment and measurement while drilling technology
(2) New technologies and methods of logging tools
(3) Geophysical exploration methods and instruments
(4) Advanced measurement and control technology and its application
(5) Intelligent instruments
(6) Advanced sensors
---𝗣𝘂𝗯𝗹𝗶𝗰𝗮𝘁𝗶𝗼𝗻---
All papers, both invited and contributed, the accepted papers, will be published for inclusion into Conference proceedings with meeting scope and quality requirements, and also submitted to EI Compendex and Scopus for indexing. All conference proceedings paper can not be less than 4 pages.
---𝗜𝗺𝗽𝗼𝗿𝘁𝗮𝗻𝘁 𝗗𝗮𝘁𝗲𝘀---
Full Paper Submission Date: October 31, 2025
Registration Deadline: November 21, 2025
Final Paper Submission Date: November 21, 2025
Conference Date: November 28-30, 2025
--- 𝗣𝗮𝗽𝗲𝗿 𝗦𝘂𝗯𝗺𝗶𝘀𝘀𝗶𝗼𝗻---
Please send the full paper(word+pdf) to Submission System: https://ais.cn/u/EZFzUn
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Hi
More information please
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I am planning a research project aimed at improving the quality and efficiency of deep learning datasets through reconstruction. The core ideas are as follows:
  1. Use mathematical models such as Gaussian Mixture Models (GMM) to extract the feature distributions of datasets, capturing both existing and potentially missing distributions.
  2. Generalize the extracted feature distributions to construct a comprehensive distribution model that reflects the overall characteristics of the dataset.
  3. Perform targeted data augmentation based on this distribution model to fill in missing distributions while removing redundant features.
  4. Further enhance the distilled dataset to optimize feature integrity for specific domains.
Questions:
  • Is this research topic suitable for a grant proposal?
  • Does this dataset reconstruction approach have research value in improving model performance (e.g., generalization ability, training efficiency)?
  • What existing studies or tools could serve as references for this work?
I look forward to receiving feedback and suggestions from experts. Thank you!
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Dear Qiang Gao ,
Magnetic Resonance Imaging (MRI) of the musculoskeletal system is one of the most common examinations in clinical routine. The application of Deep Learning (DL) reconstruction for MRI is increasingly gaining attention due to its potential to improve the image quality and reduce the acquisition time simultaneously. However, the technology has not yet been implemented in clinical routine for turbo spin echo (TSE) sequences in musculoskeletal imaging.
Regards,
Shafagat
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I am seeking comprehensive book recommendations to build a strong theoretical foundation in several advanced machine learning algorithms for my research. My focus is on understanding the underlying principles and statistical background, and the ultimate goal of implementing these methods in Python.
I am particularly interested in books that cover the following topics:
  1. Feature Selection & Noise Handling (Boruta, MDFS, and Vita)
  2. Imbalanced Data & Resampling Techniques (SMOTE, ENN, AdaSyn, and their hybrids (SMOTETomek, SMOTE-ENN))
  3. Deep Learning Architectures (MLPs, ANNs, DNNs, and CNNs)
  4. Hybrid Models (Hybrid machine learning and Hybrid deep learning models)
Could you suggest any textbooks covers the theory, statistical understanding, and algorithmic design of these topics using Python?
Thank you for your guidance and insights.
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Machine Learning: A Probabilistic Perspective (2nd edition) by Murphy
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## Quick Discussion: ##
Deep learning models (CNNs, LSTMs, and transformers) are now common in fault diagnosis — but they often act like 'black boxes'. Engineers in industry usually ask, “Why did the model classify this as a fault?”
This raises a key question:
Should we consider the need for 'Explainable AI (XAI)' in fault diagnosis, or is achieving high accuracy sufficient?
Curious to know—in your experience, which matters more in practice: "interpretability or maximum accuracy"?
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Thank you
Chris Beckingham
sir for such a lucid explanation!
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How should the development of AI technology be regulated so that this development and its applications are realized in accordance with ethics?
How should the development of AI technology be regulated so that this development and its applications are realized in accordance with ethics, so that AI technology serves humanity, so that it does not harm people and does not generate new categories of risks?
Conducting a SWOT analysis of the applications of artificial intelligence technology in business, in the business activities of companies and enterprises, shows that there are both many already and developing many more business applications of the said technology, i.e., many potential development opportunities are recognized in this field of using the achievements of the current fourth and/or fifth technological revolution in various spheres of business activity, as well as there are many risks arising from inappropriate, incompatible with the prevailing social norms, standards of reliable business activity, incompatible with business ethics use of new technologies. Among some of the most recognized negative aspects of improper use of generative artificial intelligence technology is the use of AI-equipped graphic applications available on the Internet that allow for the simple and easy generation of photos, graphics, images, videos and animations that, in the form of very realistically presented images, photos, videos, etc., depict something that never happened in reality, i.e., they graphically present images or videos presenting what could be described as “fictitious facts” in a very professional manner. In this way, Internet users can become disinformation generators in online social media, where they can post the said generated images, photos, videos, etc. with added descriptions, posts, comments, in which the said “fictitious facts” presented in the photos or videos will also be described in an editorially correct manner. Besides, the mentioned descriptions, posts, entries, comments, etc. can also be edited with the help of intelligent chatbots available on the Internet like Chat GPT, Copilot, Gemini, etc. However, misinformation is not the only serious problem as it has significantly intensified after OpenAI released the first versions of ChatGPT chatbot online in November 2021. A new category of technical operational risk associated with the new AI technology applied has emerged in companies and enterprises that implement generative artificial intelligence technology into various spheres of business. In addition, there is a growing scale of risks arising from conflicts of interest between business entities related to not fully regulated copyright issues of works created using applications and information systems equipped with generative artificial intelligence technology. Accordingly, there is a demand for the development of a standard of a kind of digital signature with the help of which works created with the help of AI technology will be electronically signed, so that each such work will be unique, unrepeatable and whose counterfeiting will thus be seriously hampered. However, these are only some of the negative aspects of the developing applications of AI technologies, for which there are no functioning legal norms. In the middle of 2023 and then in the spring of 2024, European Union bodies made public the preliminary versions of the developed legal norms on the proper, business-ethical use of technology in business, which were given the name AI Act. The legal normatives, referred to as the AIAct, contain a number of specific, defined types of AI technology applications deemed inappropriate, unethical, i.e. those that should not be used. The AIAct contains classified according to different levels of negative impact on society various types and specific examples of inappropriate and unethical use of AI technologies in the context of various aspects of business as well as non-business activities. An important issue to consider is the scale of the commitment of technology companies developing AI technologies to respect such regulations so that issues of ethical use of this technology are also defined as much as possible in technological aspects in companies that create, develop and implement these technologies. Besides, in order for AIACT's legal norms, when they come into force, not to be dead, it is necessary to introduce both sanction instruments in the form of specific penalties for business entities that use artificial intelligence technologies unethically, antisocially, contrary to AIAct. On the other hand, it would also be a good solution to introduce a system of rewarding those companies and businesses that make the most proper, pro-social, in accordance with the provisions of the AIAct, fully ethical use of AI technologies. In view of the fact that AIACT is to come into force only in more than 2 years so it is necessary to constantly monitor the development of AI technology, verify the validity of the provisions of AIAct in the face of dynamically developing AI technology, successively amend the provisions of the said legal norms, so that when they come into force they do not turn out to be outdated. In view of the above, it is to be hoped that, despite the rapid technological progress, the provisions on the ethical applications of artificial intelligence technology will be constantly updated and the legal normatives shaping the development of AI technology will be amended accordingly. If AIAct achieves the above-mentioned goals to a significant extent, ethical applications of AI technology should be implemented in the future, and the technology can be referred to as ethical generative artificial intelligence, which is finding new applications.
The key issues of opportunities and threats to the development of artificial intelligence technology are described in my article below:
OPPORTUNITIES AND THREATS TO THE DEVELOPMENT OF ARTIFICIAL INTELLIGENCE APPLICATIONS AND THE NEED FOR NORMATIVE REGULATION OF THIS DEVELOPMENT
In view of the above, I address the following question to the esteemed community of scientists and researchers:
How should the development of AI technology be regulated so that this development and its applications are carried out in accordance with the principles of ethics?
How should the development of AI technology be regulated so that this development and its applications are realized in accordance with ethics?
How should the development of AI technology applications be regulated so that it is carried out in accordance with ethics?
What do you think about this topic?
What is your opinion on this issue?
Please answer,
I invite everyone to join the discussion,
Thank you very much,
Best regards,
Dariusz Prokopowicz
The above text is entirely my own work written by me on the basis of my research.
In writing this text, I did not use other sources or automatic text generation systems.
Copyright by Dariusz Prokopowicz
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Universities need AI sovereignty to protect free thought
Ideologically preset large language models, as perfect tools for subliminal manipulation, threaten intellectual sovereignty and should be of particular concern to academia, where free thought is essential. But there are steps that universities can take towards AI sovereignty to prevent the worst effects...
"AI sovereignty also requires clear framework conditions and strategies for using AI in an institution. This includes clarifying legal issues and allocating responsibilities and processes for deciding AI-related issues.
If universities have a clear AI strategy, if they control critical AI infrastructure and if students and staff are competent in dealing with the technology, then the point has been reached at which these institutions can be considered AI sovereign. It is urgent to strive for this now."
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Call for papers-第四届云计算、性能计算与深度学习国际学术会议 (CCPCDL 2025)
Call for papers: 2025 4th International Conference on Cloud Computing, Performance Computing and Deep Learning(CCPCDL 2025) will be held on October 31-November 2 2025, in Shanghai, China.
Conference website(English): https://ais.cn/u/zEZjYz
重要信息
大会官网(投稿网址): https://ais.cn/u/zEZjYz
大会时间: 2025年10月31-11月2日
会议地点:中国-上海
提交检索:EI Compendex, Scopus
会议详情
第四届云计算、性能计算与深度学习国际学术会议 (CCPCDL 2025)将于2025年10月31日-11月2日在上海召开。
CCPCDL 已成功召开三届,第四届会议将继续深耕云计算、性能计算、深度学习等前沿研究领域,助力促进全球范围内的科学创新。CCPCDL 2025通过链接国内外最先进的学术资源、聚焦技术前沿、推进生态协同,为学界同仁提供一个分享最新研究成果、理论进展和实践应用的学术交流与产业合作平台。欢迎广大专家、学者踊跃投稿参会!
征稿主题(包括但不限于)
1、性能计算(边缘/雾计算/众包系统/网络物理系统/数据中心和云计算/嵌入式系统/ 物联网等)
2、云计算(云应用程序架构/云计算和语义web技术/云经济/云管理与运营等)
3、智能计算(智能计算系统/智能计算应用/智能计算算法等)
4、大数据(大数据搜索的算法与系统/大数据可视化分析/大数据搜索的架构/可扩展性和效率/计算建模与数据集成等)
5、深度学习(认知架构/ 机器学习/自主计算/图像处理/信息检索和重用/机器学习等)
6、 其他相关主题
出版信息
所有的投稿都必须经过2-3位同行专家评审,经过严格的审稿之后,最终所有录用的论文将被提交SPIE - The International Society for Optical Engineering(ISSN:0277-786X)出版,并提交EI Compendex(EI核心) 和Scopus检索。
参会投稿方式:
1. 作者参会:一篇录用文章允许一名作者免费参会,可在会议现场进行口头报告或海报展示等;
2. 主讲嘉宾:申请主题演讲,由组委会审核口头报告申请口头报告,时间为10-15分钟;
3. 海报展示:申请海报展示,A1尺寸,彩色打印;
4. 听众参会:不投稿仅参会,也可申请演讲及展示
◆ 投稿入口: https://ais.cn/u/zEZjYz
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what is the scope of this article
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Call for papers-第二届工业自动化与机器人国际学术会议(IAR 2025)
Call for papers: 2025 2nd International Conference on Industrial Automation and Robotics (IAR 2025)will be held on October 31-November 2 in Tianjin,China.
Conference website(English): https://ais.cn/u/rMVRZf
重要信息
大会官网(投稿网址): https://ais.cn/u/rMVRZf
大会时间: 2025年10月31-11月2日
会议地点:中国-天津
提交检索:EI Compendex, Scopus
会议详情
第二届工业自动化与机器人国际学术会议(IAR 2025)将于2025年10月31-11月2日在天津隆重召开。会议将围绕“工业自动化”与“智能机器人”等相关最新研究领域,为来自国内外高等院校、科学研究所、企事业单位的专家、教授、学者、工程师等提供一个分享专业经验,扩大专业网络,面对面交流新思想以及展示研究成果的国际平台,探讨本领域发展所面临的关键性挑战问题和研究方向,以期推动该领域理论、技术在高校和企业的发展和应用,也为参会者建立业务或研究上的联系以及寻找未来事业上的全球合作伙伴。
征稿主题(包括但不限于)
智能传感器、视觉感知、用户界面设计、机器人感知与理解、多模态交互、环境感知、信息融合、语音交互、神经网络、视觉交互、脑机接口、操作系统、机器视觉、深度学习、智能决策与控制、非线性控制、控制系统、故障检测、自适应控制、嵌入式系统、模糊控制、机电一体化、信号处理、数字孪生
出版信息
本会议所有的投稿都必须经过2-3位组委会专家审稿,经过严格的审稿之后,最终所有录用的论文将提交至ACM International Conference Proceedings Series (ISBN: 979-8-4007-1600-3)出版社,见刊后由出版社提交至 EI Compendex, SCOPUS检索,目前该出版社EI检索非常稳定。
参会投稿方式:
1、作者参会:一篇录用文章可以申请一名作者免费参会;
2、主讲嘉宾:申请主题演讲,由组委会审核;
3、口头演讲:申请口头报告,时间为10-15分钟;
4、海报展示:申请海报展示,A1尺寸;
5、听众参会:不投稿仅参会,也可申请演讲及展示。
◆ 投稿入口: https://ais.cn/u/rMVRZf
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if possible to submit paper on mobile apps dev?
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Call for papers-第五届计算机图形学、人工智能与数据处理国际学术会议(ICCAID 2025)
Call for papers: 2025 5th International Conference on Computer Graphics, Artificial Intelligence and Data Processing (ICCAID 2025) will be held on October 31-November 2, 2025 in Nanchang, China.
Conference website(English): https://ais.cn/u/JJz6ze
重要信息
大会官网(投稿网址): https://ais.cn/u/JJz6ze
大会时间: 2025年10月31-11月2日
会议地点:中国-南昌-南昌航空大学
提交检索:EI Compendex, Scopus
会议详情
第五届计算机图形学、人工智能与数据处理国际学术会议(ICCAID 2025)将于 2025年10月31日-11月2日在中国南昌举行。本次会议主要围绕“计算机图形学、人工智能与数据处理”的最新研究展开,旨在荟聚世界各地该领域的专家、学者、研究人员及相关从业人员,分享研究成果,探索热点问题,交流新的经验和技术。我们热烈欢迎相关领域专家学者向ICCAID 2025提交他们的新研究或技术贡献,与来自世界各地的科学家和学者分享宝贵的经验!
征稿主题(包括但不限于)
1. 计算机图形学
图形学基础理论与算法
真实感图形
几何造型与处理
计算机动画与游戏
非真实感图形
基于图像和视频的图形技术
......
2. 人工智能
生物特征
模式识别
机器视觉
专家系统
深度学习
智能搜索
自动编程
......
3. 数据处理
数据挖掘
大数据技术与应用
大数据管理与应用
大数据运维
数学与应用科学
信息与计算科学
统计学
计算机科学
数据科学与大数据技术
......
出版信息
会议投稿经过2-3位组委会专家严格审核后,最终所录用的论文将在SPIE - The International Society for Optical Engineering (ISSN: 0277-786X) 出版,并提交至EI Compendex, Scopus检索。
参会投稿方式:
1、口头汇报:出席会议并作10-15分钟的全英PPT演讲
*开放给所有投稿作者与自费参会人员;针对论文或者论文里面的研究做一个10-15min的英文汇报,需要自备PPT,无模板要求,会前根据会议邮件通知进行提交,详情联系会议秘书。
2、海报展示:出席会议并自制电子版海报提交至会议邮箱,会议安排展示
*开放给所有投稿作者与自费参会人员;格式:全英-A1尺寸-竖版(宽*高:594mm*841mm),需自制;制作后提交海报图片至会议邮箱iccaid@163.com,主题及海报命名格式为:现场参会/线上参会-姓名-论文订单号。
3、听众参会:出席并参加本次会议, 可全程旁听会议所有展示报告
◆ 投稿入口: https://ais.cn/u/JJz6ze
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Great
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Can the responses of intelligent chatbots available on the Internet be “arbitrarily programmed in algorithms,” biased and predetermined by their creators, or are they rather a statistical resultant of the data on which they were trained?
The prevailing opinion on the subject is that the advanced language models currently under development, such as ChatGPT, Copilot and other intelligent chatbots, are based on artificial intelligence algorithms that learn by analyzing vast amounts of text and data. These algorithms are not “preloaded” with specific views or worldviews of their creators, but rather are trained on data that reflects the diversity of thoughts, ideas and perspectives present in society. In practice, this means that the views and values expressed by such models are the resultant of the data on which they were trained, rather than being directly derived from assumptions imposed by their creators. Thus, language models do not have a built-in “worldview,” but may reflect or reproduce dominant narratives, biases and patterns that are present in the datasets on which they were trained. But what is your opinion on this topic?
I described the key issues of opportunities and threats to the development of artificial intelligence technology in my article below:
OPPORTUNITIES AND THREATS TO THE DEVELOPMENT OF ARTIFICIAL INTELLIGENCE APPLICATIONS AND THE NEED FOR NORMATIVE REGULATION OF THIS DEVELOPMENT
Please write what you think in this issue? Do you see rather threats or opportunities associated with the development of artificial intelligence technology?
What is your opinion on this issue?
And what is your opinion on this topic?
Please answer,
I invite everyone to join the discussion,
Thank you very much,
Best regards,
Dariusz Prokopowicz
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AI chatbots are already biasing research — we must establish guidelines for their use now
The academic community has looked at how artificial-intelligence tools help researchers to write papers, but not how they distort the literature scientists choose to cite...
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I am working on privacy-preserving deep learning and looking for resources (papers, tutorials, or code) related to:
  1. Applying 1D CNN inference on encrypted data (e.g., homomorphic encryption, secure multiparty computation, or federated learning).
  2. Training deep learning models directly with encrypted data instead of only inference.
Are there any existing frameworks, repositories, or implementations for time-series data (1D CNN) that demonstrate training or inference with encrypted inputs?
Any suggestions (papers, GitHub repos, toolkits, or references to HE/CKKS implementations in TensorFlow or PyTorch) would be greatly appreciated.
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Deep neural networks are a versatile and powerful tool with diverse applications, ranging from speech recognition to computer vision. The process of utilizing these networks typically involves two main phases: training and inference. In the training phase, an appropriate dataset is selected, and a network architecture is designed. The data is then used to learn the network weights, a process that may take days. Once the weights are stable and the network generates meaningful results, it can be used for inference, where it makes predictions on new, unseen data. While training can be time-consuming, inference is expected to be much faster.
Regards,
Shafagat
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Traditional deep learning models rely heavily on large-scale labeled data, yet they often struggle with reasoning, generalization, and adaptability—key aspects of human intelligence. Self-supervised learning (SSL) has emerged as a powerful paradigm, enabling models to learn rich representations from unlabeled data. However, a fundamental challenge remains: how can SSL be leveraged to mimic human-like reasoning, especially in dynamic and uncertain real-world scenarios?
I welcome perspectives from experts in machine learning, cognitive AI, and related fields. What are your thoughts on this?
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Thank you so much @@@@for your thoughtful words —and for inviting me into this meaningful exchange. As Dr. Sergio Leal Ramírez, my work sits at the intersection of mathematics education and AI, with a strong focus on how people learn to understand, not just perform tasks. That’s why I’m especially drawn to your point about the need for causal reasoning, temporal awareness, and multimodal understanding in self-supervised learning. These aren’t just fancy technical upgrades—they’re essential ingredients for any system that hopes to reason like a human, especially in messy, uncertain real-world situations.
I’ve read both of your papers carefully, and I’d love to share some reflections that blend technical insight with ideas from learning science and systems thinking.
1. “Comparative Analysis on AI-Driven Human Digital Twin for Personalized and Predictive Medicine”
This is a bold and timely vision: using AI-powered digital twins to shift medicine from reacting to anticipating. You rightly treat the Human Digital Twin (HDT) not as a static data dashboard, but as a living, evolving model that weaves together genes, body signals, behavior, and environment.
What stands out:
  • Your approach mirrors how humans actually learn about their own bodies—through constant feedback from the world around them. That’s very much in line with modern ideas about embodied cognition.
  • The three feedback loops you describe (monitoring, tuning, and care management) show a deep grasp of how adaptive systems work. In fact, it reminds me of Vygotsky’s idea of the “zone of proximal development”—where support is tailored to what a person is ready to learn next. Here, the HDT isn’t just predicting; it’s scaffolding care in real time.
  • You take ethics and validation seriously—not as an afterthought, but as core to the design. That’s rare and commendable.
A few ideas to consider:
  • Could the HDT also act as a learning partner for patients? For example, instead of just saying “take this medicine,” it might explain why—helping people build health literacy and agency.
  • You might strengthen the link to self-supervised learning. For instance, could models pre-trained on years of a patient’s unlabeled health data (like lab results or wearable readings) learn to predict future risks in a way that supports causal reasoning?
  • Your vision for using drones (UAVs) to deliver emergency meds guided by the HDT is exciting! Just keep asking: Does this empower the patient, or make them more dependent on tech? The human should always remain at the center.
2. “Supply Chain System Based on Pharmaceutical Industry 4.0 Platform”
This paper tackles a critical real-world problem: how to get medicines to people safely, quickly, and reliably—especially in a context like Pakistan, where infrastructure gaps exist. Your solution is both practical and forward-thinking.
What I appreciate:
  • The “one item, one code” traceability system is brilliant. It’s like requiring every step in a math proof to be justified—no skipping logic, no hidden assumptions.
  • Your mix of delivery options (O2O, cold chain, third-party logistics, self-pickup) shows you understand that real systems are messy and diverse—unlike many AI models that assume a perfect world.
  • You wisely learn from the U.S. and Japan but adapt those lessons to local realities. That kind of contextual awareness is what makes systems actually work.
A few suggestions:
  • What happens if sensor data is wrong, delayed, or even tampered with? Consider adding uncertainty-aware AI—for example, models that can say, “I’m not confident about this shipment’s temperature history,” and flag it for review.
  • Imagine connecting this supply chain directly to the HDT. A diabetic patient’s digital twin could verify that their insulin stayed within the safe 2–8°C range during transit—tying logistics directly to treatment success.
  • From a teaching perspective: your system is a perfect case study for students learning about trade-offs. How do you balance speed, cost, and safety? That’s real-world math and systems thinking in action.
Bringing It All Together
What excites me most is how your two papers—though focused on different scales—actually point toward a coherent vision:
  • The HDT is the micro: deeply personal, individual care.
  • The Pharma 4.0 supply chain is the macro: the infrastructure that makes that care possible.
  • And self-supervised learning with causal and temporal reasoning is the bridge between them—allowing systems to learn from real-world experience while respecting both physical limits and human values.
In math education, we always say: abstraction without context is empty, but context without structure is chaotic. Your work strikes that balance beautifully. You’re not just building smarter algorithms—you’re designing systems that can explain, adapt, and ultimately empower people.
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What is the practical possibility of integrating different individual data collection deep learning models based on image processing with Quantum computing by exploring the principle of parallel processing?
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Yes — in principle and increasingly in practice. You can integrate multiple image-based deep-learning models (or their outputs/feature sets) with quantum computing using hybrid quantum-classical architectures, quantum feature-encoding/kernel methods, and emerging quantum-assisted federated/transfer-learning approaches. But it’s not a drop-in replacement — there are important constraints (hardware noise, data-loading costs, and algorithmic fit)
How integration is typically done (patterns)
  1. Hybrid pipelines (classical frontend → quantum backend) Extract features with a classical CNN (or several CNNs trained on different data collections), then feed those features (or a reduced embedding) into a Quantum Neural Network (QNN) or quantum classifier / quantum kernel for final decisions. This avoids sending raw images to the quantum device
  2. Quantum kernels & embedding (feature fusion) Map classical feature vectors into quantum states with a learned or engineered encoding; compute similarity via quantum kernels. Kernel outputs let you fuse features from heterogeneous models (different datasets) in a principled way — useful when datasets are small or differently distributed.
  3. Quantum-assisted federated / transfer learning (privacy + multi-site data) For integrating model updates from multiple data owners (e.g., hospitals), quantum-assisted federated methods can help with secure aggregation or accelerate parts of the optimization/aggregation. Research prototypes exist showing quantum-assisted federated diagnosis pipelines.
  4. End-to-end quantum convolutional architectures (research stage) Quantum convolutional neural-network analogs (QCNNs) and other native QNN designs for image tasks exist in papers and show promise in simulation and small real devices — but scaling to high-resolution images remains an active research challenge.
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2025 International conference on AI-Driven Business Transformation and Data Science Innovation (ICBTDS 2025) will be held on November 14-16, 2025 in Bandung, Indonesia.
Conference Website: https://ais.cn/u/YnUvyq
---Call for papers---
The topics of interest include, but are not limited to:
Track 1: Application of Artificial Intelligence in Business Process Optimization
Generative AI
AI Strategy and Governance System
Intelligent Operations
Intelligent Audit System
Customer Relationship Management
Supply Chain Management
Deep Learning and Autonomous Decision-making
Multimodal Interaction
Track 2: Data Science and Technological Innovation
Data-driven Decision-making
Real-time Data Processing Technology
Risk Analysis
Intelligent Decision-making
Natural Language Processing
Object Modeling
Multimedia Database
Recommendation System
Multimodal Data Management Data warehousing and mining
Track 3: Digital Transformation and Strategic Innovation
Fintech
Internet of Things
Edge Computing
Smart City
Sentiment Analysis
Explainable AI
Digital Twin
--- Publication---
All papers, both invited and contributed, will be reviewed by two or three experts from the committees. After a careful reviewing process, all accepted papers of ICBTDS 2025 will be published in conference proceedings, and submitted to Inspec and CNKI for indexing, and where applicable, also submitted to Ei Compendex and Scopus (Subject to acceptance).
---Important Dates---
Full Paper Submission Date: October 10, 2025
Registration Deadline: November 7, 2025
Final Paper Submission Date: October 21, 2025
Conference Dates: November 14-16, 2025
--- Paper Submission---
Please send the full paper(word+pdf) to Submission System:
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I will definitely send my article with the test data of the AI ​​mvp with Sistem MDEI
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Periapical radiographs are a fundamental tool in dental diagnostics. They provide high-resolution imaging at low cost and low radiation, but they inherently lack three-dimensional depth. While Cone Beam CT (CBCT) can provide volumetric data, its use is limited by cost, radiation dose, and accessibility, especially in localized or economically constrained clinical scenarios.
This discussion proposes a new approach:
Can three periapical images taken from optimized angles—using a custom-designed, reproducible film holder—be analyzed by artificial intelligence to reconstruct a localized, tomographic-like 3D image of a small region, such as the root apex, a periapical lesion, or a canal curvature?
Theoretical Rationale
This idea is inspired by the SLOB principle (Same Lingual, Opposite Buccal), a well-established radiographic method for inferring spatial position from angle changes. We extend that principle by introducing structured imaging and AI interpretation.
The proposed system involves:
Three 2D radiographs taken at specific, predetermined angles (e.g., -15°, 0°, +15°)
A reproducible, standardized film holder to eliminate positional variability
An AI-based image analysis system trained to reconstruct depth information based on the radiographic variations
Biological Justification
Human dental anatomy is structurally predictable. This anatomical consistency, which forms the basis of anatomical education and interpretation, creates a natural prior for AI-based inference. Given the recurring nature of root forms, canal structures, and cortical outlines, even limited-angle 2D data may be sufficient for a trained model to infer 3D shape and pathology with acceptable accuracy. Anatomical predictability improves the feasibility of AI-driven tomographic reconstruction.
Hypothesis
A standardized radiographic protocol consisting of:
Three periapical images at optimized horizontal and vertical angles
A 3D-printable, reproducible film holder for stable positioning
AI models trained on anatomical priors and radiographic variance
can provide a pseudo-3D reconstruction of limited regions of interest, with sufficient diagnostic fidelity for tasks such as identifying root fractures, evaluating lesion boundaries, or tracing canal trajectories.
On Optimizing Radiographic Angles
While the angles -15°, 0°, and +15° are frequently suggested based on clinical routines and the SLOB technique, they may not be optimal for all regions or types of pathology.
The horizontal and vertical components of the X-ray beam must be considered independently. Angle optimization is essential for balancing image clarity, minimizing distortion, and maximizing spatial differentiation.
Axis Proposed Range Increments Diagnostic Purpose
Horizontal (mesial-distal) -30° to +30° 5° to 10° Buccal-lingual separation
Vertical (apical-incisal) -15° to +15° 5° to 7.5° Root tip visualization, cortical height detection
An in-vitro study could generate radiographs of dental phantoms at various angle combinations, then evaluate 3D reconstruction accuracy compared to CBCT or surface scans as ground truth.
Film Holder Design
We propose the creation of a 3D-printable intraoral film holder with:
Slots for precise and repeatable angulation
Support for standard digital sensors or film
Lightweight and autoclavable design for clinical feasibility
Such a holder would allow researchers and clinicians to consistently replicate angular projections, facilitating both data collection and model training.
Suggested Research Path
1. Design and 3D print a prototype film holder.
2. Acquire tri-angle periapical radiographs from dental models or phantoms.
3. Reconstruct 3D point cloud or voxel models using AI techniques (e.g., NeRF, GANs, MVS CNNs).
4. Validate accuracy against CBCT data.
5. Refine the angular protocol based on performance metrics such as RMS error, segmentation overlap, and root curvature traceability.
Questions for the Community
1. Have similar approaches been tested using limited-angle radiographs and deep learning?
2. Are there neural architectures (e.g., GANs, NeRF, transformer-based vision models) better suited for this type of reconstruction?
3. Can synthetic training datasets help in the absence of clinical ground truth?
4. Could this be developed into a viable clinical tool for situations where CBCT is not available or justified?
Keywords
Periapical Radiography, 3D Reconstruction, Deep Learning, SLOB Principle, Dental Imaging, Film Holder Design, Radiographic Optimization, Cone Beam CT Alternative, Dental AI, Image Triangulation, NeRF, GAN, Root Canal Visualization, Low-cost Tomography, Intraoral Imaging, AI in Dentistry, Diagnostic Radiology, Predictable Anatomy, Multi-angle Radiographs, Radiographic Innovation
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In short, yes it is very much possible.
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While modern tomographic imaging techniques such as CT and MRI provide detailed volumetric data, they remain expensive, resource-intensive, and often inaccessible in underserved settings. In contrast, plain radiographic imaging (X-rays, ultrasound slices, low-field MRI) is widely available, low-cost, and quick. This raises an important question:
> Can we reconstruct clinically useful 3D models of specific anatomical structures using only a few strategically angled 2D projections, guided by anatomical predictability and artificial intelligence?
This discussion aims to explore the theoretical feasibility, biological justifications, and technical requirements for such a system, inspired by recent advances in dental imaging and AI-based 3D reconstruction.
---
Theoretical Basis
3D reconstruction from limited 2D input has been demonstrated in several domains, notably in:
Photogrammetry and computer vision
Dental radiology using periapical images
Medical fields like fetal imaging or skeletal modeling
The key enabler is the predictable nature of human anatomy, which allows machine learning systems to "fill in" missing dimensions based on population-level data or trained priors.
---
Biological Justification
Human anatomy is repetitive, structured, and largely symmetrical, especially in:
Craniofacial skeleton
Vertebral column
Pelvis and lower limbs
Thoracic cage
Major organ positioning and shape (e.g., heart, lungs, liver)
This consistency enables neural networks to learn statistical shape models or generative 3D templates from relatively small inputs.
For example:
From two X-ray views of the pelvis (AP and oblique), an AI could estimate acetabular orientation.
From lateral and PA chest X-rays, an AI could reconstruct the 3D silhouette of lungs and heart.
From two views of the spine, the curvature in three dimensions could be inferred.
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Imaging Modalities Considered
The following input sources could be considered for limited-view 3D reconstruction:
Standard X-ray images from multiple angles
Low-field or limited-sequence MRI (e.g., sagittal + axial)
2D ultrasound frames (especially for soft tissues)
Structured light images or surface scans in rehabilitation contexts
Each of these modalities, although inherently 2D, can contribute layers of spatial context when collected from diverse orientations.
---
AI Techniques That Enable This
Several AI models have shown potential for volumetric reconstruction:
Neural Radiance Fields (NeRF) for implicit 3D modeling from few views
Multi-view Convolutional Neural Networks (MVCNNs) for voxel grid prediction
Pix2Vox / 3D-R2N2 for end-to-end volume reconstruction
MedNeRF for MRI/CT domain-specific generation
Transformers with anatomical priors for uncertainty modeling
---
Suggested Experimental Framework
1. Dataset Creation: Multi-angle 2D views of cadaveric models or digital phantoms, alongside full 3D scans as ground truth.
2. Region Selection: Start with semi-rigid structures like the skull base, pelvis, or thoracic cavity.
3. Angle Optimization: Test combinations of 2–4 input angles to determine optimal balance between accuracy and simplicity.
4. AI Model Training: Choose or build appropriate architectures, integrating anatomical priors where possible.
5. Clinical Testing: Assess whether the resulting volumes meet diagnostic thresholds for specific tasks (e.g., preoperative planning, deformity analysis, fracture assessment).
---
Potential Use Cases
Low-cost diagnostics in remote/rural settings
Pediatric imaging with reduced radiation
Preoperative modeling in trauma where CT is delayed
Emergency triage using portable radiography
Education and simulation tools with minimal imaging
---
Open Questions for Discussion
1. Which anatomical regions are most suitable for such AI-based reconstruction from limited input?
2. What is the minimum number of angles/views required for meaningful 3D inference?
3. Can public datasets be used or synthesized to train these models at scale?
4. What are the ethical and clinical safety considerations before deploying such a system?
5. Could such a system be integrated into portable or mobile imaging units?
---
Keywords
3D Reconstruction, Plain Radiography, Artificial Intelligence, Anatomical Modeling, Low-Cost Imaging, NeRF, Multi-Angle X-rays, Medical Photogrammetry, AI in Radiology, Generative Medical Models, Predictable Anatomy, Transform-Based Imaging, Low-Field MRI, Diagnostic Innovation, Frugal Healthcare AI, Deep Learning in Medicine, Image-Based Volume Estimation, Volumetric Inference, Medical Image Synthesis, Clinical Geometry Modeling
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Three-dimensional (3D) human body models play a pivotal role in fields such as computer graphics, virtual reality, and human–computer interaction [1]. Accurately reconstructing realistic 3D human body models from images remains a challenging task that has garnered significant attention in recent years. Capturing detailed surface information while preserving the natural appearance of human subjects is crucial for applications like virtual try-on, digital entertainment, and medical simulations.
Regards,
Shafagat
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2025 6th International Conference on Big Data and Social Sciences (ICBDSS 2025) will be held on October 24-26, 2025, in Jeju Island, Korea.
Conference Website: https://ais.cn/u/immmai
---Call for papers---
The topics of interest include, but are not limited to:
◕ Big Data
· Big data application
· Big data management
· Data science model and method
· Big data algorithm
· Big data search and information retrieval technology
· Big data and deep learning
· Scalable computational models, theory and algorithms
· Memory systems and platforms for big data analytics
· Big data and high performance computing
· Big data system performance evaluation report
......
◕ Social Sciences
· Educational Science Research Based on Big Data (Educational Science)
· Cultural Studies Based on Big Data Methods (Culture)
·  Literary Studies Based on Big Data Methods (Literature)
· Political Research Based on Big Data Methods (Politics)
· Research on Philosophy Based on Big Data (Philosophy)
· Research on Marxist Theoretical Problems Based on Big Data Method (Marxism)
· Research on Ethics and Methodology of Big Data Application (Ethics)
......
---Publication---
All papers, both invited and contributed, will be reviewed by two or three experts from the committees. After a careful reviewing process, all accepted papers of ICBDSS 2024 will be published in Conference Proceedings and submitted to Inspec and CNKI for indexing, and where applicable, also submitted to Ei Compendex and Scopus (Subject to acceptance).
---Important Dates---
Full Paper Submission Date: September 25, 2025
Registration Deadline: October 1, 2025
Final Paper Submission Date: October 10, 2025
Conference Dates: October 24-26, 2025
--- Paper Submission---
Please send the full paper(word+pdf) to Submission System:
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Thank u so much given information.
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会议征稿:第二届机器学习、模式识别与自动化工程国际学术会议(MLPRAE 2025)
Call for papers: IEEE 2025 2nd International Conference on Machine Learning, Pattern Recognition and Automation Engineering(MLPRAE 2025) will be held on September 26-28, 2025 in Jinan, China.
Conference website(English): https://ais.cn/u/AN3UVn
重要信息
大会官网(投稿网址): https://ais.cn/u/AN3UVn
大会时间: 2025年9月26日至28日
地点: 中国-济南(线上同步)
提交检索:IEEE Xplore, EI Compendex, Scopus
会议详情
第二届机器学习、模式识别与自动化工程国际学术会议(MLPRAE 2025) 将于2025年9月26-28日在济南举行它致力于为机器学习、模式识别与自动化工程领域的专家和学者之间的学术交流创造一个平台。会议的理念是让来自世界各地大学和行业的科学家、学者、工程师和学生展示正在进行的研究活动,从而促进大学和行业之间的研究关系。本次会议为代表们提供了面对面交流新思想和应用经验的机会,建立业务或研究关系,并为未来的合作寻找全球合作伙伴。
征稿主题(包括但不限于)
机器学习
软计算
遗传算法
进化计算
量子演化计算
蚁群优化算法
DNF 计算
免疫计算
群体计算
......
模式识别
模式识别与信号处理
模式识别中的人工智能技术
模型表示和选择
场景分析
活动/行为识别
机器人
机器人和深度学习
机器学习方法
计算机视觉
......
智能自动化系统及应用
机器人控制
自动控制系统
智能交通技术与系统
自动化和监控系统
模糊系统和模糊控制
神经网络与控制
多目标优化
机器人路径规划
电源故障诊断
系统与合成生物学
仿生优化
......
论文出版
所有的投稿都必须经过2-3位组委会专家审稿,经过严格的审稿之后,最终所有录用的论文将提交至IEEE出版社(ISBN: 978-1-6654-5742-2),见刊后由出版社提交至 IEEE Xplore, EI Compendex, SCOPUS检索。
参会投稿方式:
所有参会人员可申请口头演讲以及海报展示,可开具证明:
①全文投稿:一篇录用文章包含一名作者免费参会;
②口头演讲:申请口头报告,时间为10分钟;
③海报展示:申请海报展示,A1尺寸;
④听众参会:不投稿仅参会,仍可申请演讲或海报展示;
◆ 投稿入口: https://ais.cn/u/AN3UVn
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impact factor journal and what is the cost of paper publications ?
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I am conducting a short survey (5–10 minutes) as part of my MSc thesis research on: “A Comparative Analysis of CNN-based, Transformer-based, and Lightweight Models for Multi-Class Image Classification: Assessing the Effectiveness of Data Augmentation.”
The survey seeks insights from researchers and practitioners with experience in deep learning, image classification, and data augmentation. Your responses will help compare model efficiency and identify which augmentation techniques are most effective in practice.
All responses are anonymous and will be used only for academic purposes.
Thank you very much for your time and valuable contribution!
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Dear Mesut Ugur ,
With the rapid development of Artificial Intelligence (AI) in the past decades, AI methods have shown their superiority over human beings and other traditional approaches across most tasks,
Regards,
Shafagat
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🚀 GRUs Explained Simply | Deep Learning for Beginners 👨‍💻 New video just dropped! 🎥 → https://youtu.be/t7Q5TvWhLls
If you're exploring the world of Recurrent Neural Networks (RNNs) and want to understand Gated Recurrent Units (GRUs) without all the complex math—this video is for you.
✅ What you’ll learn:
  • Why GRUs were introduced
  • How they differ from LSTMs
  • Step-by-step breakdown of the architecture
  • Real-world use cases and intuition behind the gates
Perfect for beginners diving into AI, Deep Learning, and NLP. 💡
🎯 Watch, learn, and let me know your thoughts in the comments. #DeepLearning #AIForBeginners #GRU #NeuralNetworks #MachineLearning #ArtificialIntelligence #DataScience #RNN #YouTubeLearning
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Gated Recurrent Units (GRUs) are a type of recurrent neural network (RNN) architecture that's particularly effective for processing sequential data like text, speech, and time-series data. They were introduced as a simpler, more computationally efficient alternative to Long Short-Term Memory (LSTM) networks, while still addressing the vanishing gradient problem that plagues traditional RNNs.
How GRUs Work
The core of a GRU's functionality lies in its two "gates," which are special mechanisms that regulate the flow of information. These gates are:
  • Reset Gate: This gate determines how much of the past information (from the previous hidden state) to forget. It helps the network to discard irrelevant information and focus on the current input. If the reset gate's value is close to 0, it essentially erases the previous state, allowing the network to start fresh.
  • Update Gate: This gate controls how much of the past information should be carried forward to the new hidden state and how much of the new candidate information should be incorporated. It helps the network to decide what's important from the past and what's important from the current input.
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the difference between Machine Learning, deep Learning, and federated Learning approaches in solving problems (Medical, Education, Finance)
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Artificial intelligence isn't a one-size-fits-all solution! it's more like a toolbox where different techniques shine in different scenarios.
Machine Learning: The Versatile Problem-Solver
Think of ML as the Swiss Army knife of AI; it's flexible, widely applicable, and great at finding patterns in data. Doctors use it to predict disease risks before symptoms appear, teachers leverage it to customize lessons for struggling students, and banks rely on it to spot fraudulent transactions in real time. The catch? It still needs human expertise to "guide" it; data scientists must carefully select and prepare the right features for the model to learn effectively.
Deep Learning: The Pattern Recognition Powerhouse
DL takes things further by mimicking how our brains process information, making it incredibly good at handling messy, complex data like medical scans, voice recordings, or even handwritten essays. It's why AI can now detect tumors in X-rays with superhuman accuracy, why language-learning apps adapt to your mistakes, and how hedge funds analyze news sentiment to predict stock movements. But this power comes at a cost these models are data-hungry, often needing thousands (or millions) of labeled examples and serious computing muscle to train.
Federated Learning: AI That Respects Privacy
FL is the socially conscious cousin of traditional AI. Instead of centralizing data (which raises privacy concerns), it lets models learn collaboratively, like hospitals improving cancer detection algorithms without ever sharing patient records, or banks jointly fighting fraud without exposing customer transactions. It's a game-changer for industries where data sensitivity is non-negotiable, though it requires careful coordination to ensure all participants benefit equally.
The future lies in blending these approaches—using ML where simplicity wins, DL for complex perception tasks, and FL to ensure AI progresses without sacrificing privacy. The key is matching the tool to the problem, not the other way around.
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We are an active Arabic Natural Language processing (NLP) and AI research group doing research in Deep learning, machine learning and social network analysis for Arabic NLP.
We are looking for an RA that can work remotely on a number of NLP/Deep learning/Machine Learning projects, where can we find such candidates?
Responsibilities:
Data cleaning, analysis and visualization using various approaches.
Ability to conduct literature review and summarize them in a coherent way.
Ability to implement different ML/DL approaches using different datasets to serve specific NLP problems.
Ability to fine tuning BERT/AraBert and its different variations to serve specific NLP tasks.
Ability to communicate the experiments and results in clear English language.
Required Minimum Qualifications:
Master/PhD in computer science.
Experience in Python (including numPy, sciPy, pandas, matplotlib)
Excellent working knowledge of Deep learning/Machine Learning.
Experience with word embeddings, BERT, etc.
Ability to clearly communicate technical ideas in English.
Motivated, Independent, self-learner and ability to work with diverse team.
Excellent verbal and written communication skills are required.
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Hello,
I am interested. I am pursuing a PhD in Information Technology at George Mason University. My research interest is in ML/NLP.
Best,
Jayoti Devi
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Dear researchers.
I have recently started my research in detecting and tracking brain tumors with the help of artificial intelligence, which includes image processing.
What part of this research is valuable, and what do you suggest for the most recent part that is still useful for a PhD. research proposal?
Thank you for participating in this discussion.
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Your research topic is both valuable and timely. Brain tumor detection and tracking using AI and image processing addresses a high-impact medical challenge where early and accurate diagnosis significantly influences patient outcomes. A good PhD proposal in this area should aim to contribute both clinically and technically.
From a value standpoint, developing robust AI models for segmentation (e.g., identifying tumor boundaries in MRI scans), classification (distinguishing tumor types such as glioma vs. meningioma), and tracking (monitoring tumor progression or regression over time) are all high-impact tasks. Incorporating multi-modal data (e.g., combining T1, T2, FLAIR MRI sequences) increases accuracy and relevance. One valuable direction is explainable AI (XAI), which helps clinicians trust and adopt AI tools by offering interpretable outputs.
For recent and still-evolving areas, consider integrating deep learning architectures such as Vision Transformers (ViTs) or hybrid CNN-RNN models for spatial-temporal analysis of tumor growth. Also, semi-supervised learning or federated learning methods can address the scarcity and sensitivity of labeled medical datasets. Lastly, aligning your research with clinical workflows (e.g., tumor grading, surgical planning) will increase translational impact and relevance for real-world application.
Make sure your proposal includes a clear research question, defined datasets (e.g., BraTS dataset), performance benchmarks, and a plan for validation using clinical expert feedback or prospective studies. Collaboration with a medical institution or hospital will significantly enhance the credibility and applicability of your work.
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Currently, I'm researching to detect Covid-19 using chest X-ray images. When I looked at previous studies found out that almost all the research studies on medical imaging use Deep Learning instead of simple Image Processing techniques. What's the main reason to use Deep Learning over Image Processing?
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That's an excellent question—one that highlights the broader shift in the medical imaging community over the past decade.
The primary reason deep learning is favored over traditional image processing in medical imaging research, including COVID-19 detection from chest X-rays, is performance and scalability. Deep learning, especially convolutional neural networks (CNNs), excels at automatically learning complex patterns, textures, and features from raw image data without the need for manual feature engineering. In contrast, traditional image processing relies heavily on handcrafted filters, thresholding, and edge detection, which often lack the robustness and generalizability needed in real-world medical applications where image quality and anatomy can vary significantly.
Moreover, deep learning models can leverage large labeled datasets to improve accuracy and generalization. In medical imaging, where subtle variations may distinguish a healthy scan from a pathological one, deep learning can capture these nuances far more effectively than rule-based or pixel-level traditional methods. Also, once trained, deep learning models can process thousands of images quickly, making them suitable for deployment in clinical settings.
That said, image processing still plays an important role—often as a preprocessing step (e.g., noise removal, contrast enhancement, lung segmentation) to help deep learning models perform better. The two approaches are not mutually exclusive but are increasingly integrated, with image processing laying the groundwork and deep learning delivering the predictive power.
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Deep Learning is better for image classification in most real-world scenarios, especially when:
· You have a lot of labeled image data
· You need end-to-end learning (raw pixels to predictions)
· Complex image patterns (e.g., object detection, medical imaging) need to be captured
Exceptions where traditional ML (like SVM) might be useful:
· Small datasets with high-quality hand-engineered features
· Simpler tasks (e.g., binary classification of simple images)
· Limited computing resources
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While both machine learning (ML) and deep learning (DL) have their strengths, I’ve found deep learning to offer superior performance for complex image classification tasks in real-world scenarios.
In my research, I’ve applied DL-based models across several domains:
Medical Imaging:
In our work on diabetic retinopathy titled “Retinal Twins: Leveraging Binocular Symmetry with Siamese Networks”, we used deep Siamese networks to detect asymmetries between left and right eye images. The nuanced visual differences were far beyond what traditional ML models could consistently catch, highlighting DL’s strength in feature abstraction from raw pixel data.
Security and Media Authenticity:
Our paper “DeepFake Detection Using Deep Q-Learning with Attention-Driven Genetic Tuning” addressed the challenge of detecting manipulated content. The combination of deep reinforcement learning and attention mechanisms enabled the model to identify complex visual forgeries that standard ML approaches typically miss.
Paper Link:-
Agricultural Diagnostics:
In “Advanced Crop Recommendation System: Leveraging Deep Learning and Fuzzy Logic for Precision Farming”, we used image-based inputs to classify crop health and recommend suitable interventions. Here, deep learning proved essential in processing field-level image data under variable lighting and environmental noise.
Paper Link :-
These examples collectively show that deep learning not only improves accuracy but also scales better across different domains—especially when dealing with large datasets, intricate patterns, and the need for automated feature learning.
Of course, in scenarios with limited data or hardware constraints, classical ML methods like SVMs may still be appropriate. But for tasks requiring end-to-end vision pipelines, DL has consistently outperformed in my experience.
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Our study introduces a novel two-stage AI framework that detects and localises pain using Electrodermal Activity (EDA) signals. We developed Multi-Domain Binary Patterns (MDBP) to extract hidden patterns from EDA signals, achieving 77.9% accuracy in pain detection and 69.67% in pain localisation. This work could pave the way for non-verbal pain assessment.
What other biosignals do you think could enhance pain recognition? Additionally, are there other publicly available physiological signal datasets for pain research that could help validate AI-based pain assessment models?
Read more about our work here: A Two-Stage Architecture for Identifying and Locating the Source of Pain Using Novel Multi-Domain Binary Patterns of EDA. (DOI:10.1016/j.bspc.2024.107454)
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Why Do Headaches Feel So Different From Other Kinds of Pain?
Why does a severe headache — from the grind of a migraine to the searing cluster attack that throws a person into fits of rocking and pacing — feel so different from any other kind of physical anguish? Essentially, excruciating head pain seems to collapse the separation between body and self...
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  • What parallels can be drawn between Nokia’s late response to the smartphone revolution and the current risk faced by organizations or educators who resist integrating generative AI tools like ChatGPT?
  • What changes in user behavior have been observed due to the availability of ChatGPT (e.g., shift from Google searches to conversational queries, preference for AI-assisted writing).?
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Thank you for your well-thought-out question. It touches on a crucial issue that many organizations and educators are currently grappling with. Here's my response in line with your query:
Organizations or educators who resist integrating generative AI tools like ChatGPT face risks similar to those Nokia encountered during the smartphone revolution. Just like Nokia underestimated how quickly user preferences would change, ignoring AI now could mean falling behind in innovation, efficiency, and relevance. It’s not just about missing a tech trend—it’s about failing to meet new expectations in how we learn, work, and communicate.
We’re already seeing noticeable changes in user behavior due to ChatGPT and similar tools. People are shifting from traditional Google searches to more conversational, interactive queries. They’re also increasingly relying on AI for writing, research, coding, and problem-solving tasks. This shift shows a growing preference for tools that offer speed, personalization, and real-time assistance—something AI does exceptionally well.
In short, just as Nokia paid the price for not adapting in time, today’s organizations and educators risk becoming outdated if they don’t evolve with AI-driven changes.
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  • What parallels can be drawn between Nokia’s late response to the smartphone revolution and the current risk faced by organizations or educators who resist integrating generative AI tools like ChatGPT?
  • What changes in user behavior have been observed due to the availability of ChatGPT (e.g., shift from Google searches to conversational queries, preference for AI-assisted writing)?
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It’s the easiest auto-segmentation tool for vertebrae. If you want cloud-based, Segmed.AI does it with just a DICOM upload.
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I am currently exploring the application of machine learning (ML) and deep learning (DL) techniques in the healthcare domain, specifically focused on cancer detection and diagnosis. I would like to implement models using Python and am seeking guidance on:
  1. Suitable datasets for different types of cancer (e.g., breast, lung, brain, skin).
  2. Appropriate ML/DL algorithms for classification, segmentation, or survival prediction tasks.
  3. Preprocessing techniques for medical data (e.g., histopathology images, MRI scans, clinical records).
  4. Python libraries and frameworks commonly used (e.g., Scikit-learn, TensorFlow, Keras, PyTorch).
  5. Example projects or GitHub repositories to refer to.
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Hello, do your database need a large number of small molecule compounds' pharmacological properties and application protocols?
We (MedChemExpress, MCE) have many small molecule drugs and disease-inducing drugs in mainstream fields such as cancer and immunity. For example, the following product information is introduced. If you are willing to cooperate further, please contact us.
The answer to this question comes from MedChemExpress (MCE) Technical Support.
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This deep learning framework for yoga asana identification is designed to automate the recognition and classification of yoga poses using computer vision and artificial intelligence. The system operates in several key stages:
1. Dataset Collection
The process begins with the acquisition of a dataset containing images or videos of individuals performing various yoga asanas. The dataset is diverse, capturing different body types, angles, lighting conditions, and environments to ensure robust model performance.
2. Preprocessing
Each image is preprocessed to improve its quality and consistency. This stage may involve resizing, normalization, noise reduction, background subtraction, and pose alignment. The goal is to standardize input data for optimal learning.
3. Transfer Learning for Feature Extraction
Preprocessed images are passed through a pre-trained deep learning model (e.g., VGG16, ResNet, InceptionNet) using transfer learning. These models, trained on large image datasets like ImageNet, act as efficient feature extractors, capturing high-level visual patterns relevant to human posture and pose.
4. Feature Set Generation
The output of the transfer learning model is a feature set, representing abstracted information from each image (e.g., joint positions, angles, spatial relationships). This set forms the input for the final classification model.
5. Training and Testing
The feature set is divided into training and testing datasets. The training set is used to teach the Deep Neural Network (DNN) classifier to associate feature patterns with specific yoga poses, while the testing set is used to evaluate model accuracy and generalization.
6. DNN Classifier
The core of the system is a DNN classifier, which consists of multiple hidden layers with interconnected neurons. It learns non-linear mappings between feature representations and yoga asana labels (e.g., Tadasana, Vrikshasana, Bhujangasana). The network uses backpropagation and gradient descent to minimize classification errors.
7. Accuracy Evaluation
After each training epoch, the model's accuracy is evaluated. If the model fails to reach the desired accuracy threshold, it undergoes further training iterations. This loop continues until the system achieves satisfactory classification performance.
8. Model Checkpointing
Once the required accuracy is attained, the trained model is saved as a checkpoint. This allows for reuse without retraining and can be deployed in real-time applications such as yoga learning apps, posture correction tools, or virtual yoga instructors.
Applications
  • Real-time yoga posture correction
  • Automated feedback systems in yoga apps
  • Yoga pose detection in video conferencing
  • Rehabilitation and therapy monitoring
  • Fitness and wellness analytics platforms
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Dear Rinsha K.A ,
Artificial Intelligence (AI) is revolutionizing various fields, and its influence on global politics is profound. From enhancing diplomatic strategies to bolstering national security, AI is reshaping how countries interact and safeguard their interests.
Regards,
Shafagat
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🧠 Feedforward Neural Networks (FNNs) Explained – In the Simplest Way! 🔗 https://youtu.be/C94d_NHtVSQ
Curious about how machines "learn"? 🤖 Start your neural network journey by understanding Feedforward Neural Networks (FNNs) — the foundation of deep learning!
In this video, you'll learn: ✅ What FNNs are ✅ How they process information ✅ Key components like layers, weights, and activations ✅ Their role in classification & prediction tasks
Perfect for beginners looking to build strong AI/ML fundamentals! 🎓 No prior deep learning experience required — just curiosity.
#MachineLearning #DeepLearning #NeuralNetworks #AI #Feedforward #FNN #ArtificialIntelligence #EdTech #LearningAI
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Dear Rahul Jain ,
A feedforward neural network is an artificial neural network (ANN) that consists of multiple layers of neurons, each fully connected to the next. In this structure, neurons in one layer connect to every neuron in the subsequent layer without any feedback loops or cycles.
Regards,
Shafagat
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2025 2nd International Conference on Image Processing, Machine Learning, and Pattern Recognition (IPMLP 2025)will be held from July 11-13, 2025 in Colegio Arzobispo Fonseca,Salamanca,Spain.
Conference Website: https://ais.cn/u/R3AZby
---Call for papers---
The topics of interest for submission include, but are not limited to:
◕ Image and Signal Processing
· Image Recognition
· Image Acquisition
· Visual Analysis and Understanding
· Image Enhancement and Restoration
· Image and Video Generation
· 3D Modeling
......
◕ Machine Learning and Intelligent Sensing
· Intelligent Sensors
· Automated Driving
· Deep Learning
· Supervised Learning
· Unsupervised Learning
· Reinforcement Learning
......
◕ Pattern Recognition Technology
· Computer Vision Systems
· Feature Extraction
· Human-Computer Interaction
· Neural Networks
· Target Detection and Classification
· Biometrics Recognition
......
---Publication---
All papers, both invited and contributed, will be reviewed by two or three expert reviewers from the conference committees. After a careful reviewing process, all accepted papers of IPMLP 2025 will be published in ACM International Conference Proceedings Series, which will be archived in the ACM Digital Library, and indexed by EI Compendex, Scopus.
---Important Dates---
Full Paper Submission Date: June 23, 2025
Registration Deadline: June 30, 2025
Final Paper Submission Date: July 4, 2025
Conference Dates: July 11-13, 2025
--- Paper Submission---
Please send the full paper(word+pdf) to Submission System:
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computer science & IT? article charges
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my research is differentiate gbm and cns lymphoma cancer in brain using MRI Scan with deep learning python or matlab could any one help me to do this
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What problem you are facing? Do you have the dataset?
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Providing background information for those unfamiliar with the UG theory. Making the debate relevant to modern AI advancements. Encouraging multidisciplinary contributions (linguistics, NLP, cognitive science, etc.). Adding specific questions to guide responses.
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Is Grammar an Inherent Product of the Human Brain?
"Gotta love a good academic controversy! The video below looks into perhaps the most intense and raging arguments in the field of linguistics, beginning with Noam Chomsky’s theories from the 1950s and 1960s suggesting that humans share a Universal Grammar (UG) that stems from the structure and functions that have evolved in the human brain. This theory is still hotly debated, and takes on even more interesting parameters in the age of artificial intelligence and large language models (LLMs). As we become increasingly reliant upon these word-prediction machines, how does what we know about human language impact the way they are created and function?"
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Hello Dear all,
Could you please give me some links to datasets containing images of soil ? my aim is analyzing the soil texture, moisture, nutrients, ... I want it for a deep learning approach.
Thank you very much
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Soil Texture Datasets for Deep Learning
Deep learning, particularly Convolutional Neural Networks (CNNs), is well-suited for classifying soil texture from images due to their ability to learn complex spatial patterns.
  • Soil Types Dataset (Kaggle)This dataset contains 144 labeled images across six distinct soil types: Alluvial, Clayey, Laterite, Loamy, Sandy Loam, and Sandy Soil. These classifications are inherently related to soil texture. Source: Soil Types Dataset
  • Roboflow Universe - Soil Datasets Roboflow hosts a variety of community-contributed datasets. Searching for "soil" on their platform can yield several image datasets, some of which are explicitly designed for soil type or texture classification. Examples include:"Soil type class test" (820 images) and "Soil Type Classification" (154 images) related to texture. "Soil Classification Thesis" (154 images) which mentions soil texture analysis. Source: Top Soil Datasets and Models | Roboflow Universe
  • Soil Classification Example (APMonitor)This resource provides a Python Jupyter Notebook and MATLAB Live Script for soil classification using CNNs, along with a soil_photos.zip archive. The dataset is structured for training classifiers to identify soil types such as Gravel, Sand, and Silt, which are textural components. Source: Image Classification: Soil Type | Machine Learning for Engineers - APMonitor
  • Research Papers mentioning Texture Datasets:Some research, such as "Soil Texture Classification Using Deep Learning" (on ResearchGate), discusses the use of smartphone images (e.g., a dataset of 576 images for sand and clay classification) and depth camera images (e.g., 27 images split into 17,442 smaller images for fine-grained and coarse-grained texture) for soil texture analysis. While direct dataset download links may not be in the abstract, the papers often provide details on data collection or access. Source: Soil Texture Classification Using Deep Learning
Soil Moisture Datasets for Deep Learning
Predicting soil moisture from images often involves satellite imagery or ground-level images with associated moisture measurements.
  • NASA SMAP (Soil Moisture Active Passive) DatasetThis is a satellite-based dataset that provides global soil moisture measurements. While it's not "visual images" in the traditional sense, it provides valuable remote sensing data suitable for deep learning approaches, especially for large-scale moisture mapping and prediction. Source: 15 datasets to revolutionize agriculture with AI - Innovatiana (listed as dataset #5)
  • Soil Moisture Prediction (GitHub Project)A GitHub project describes a mobile application that uses AI to predict soil moisture content from standard digital images. The project likely contains or refers to the image data used for training their model. Source: Abhinav1004/Soil-Moisture-Prediction - GitHub
  • Satellite Data for Soil Moisture Prediction Research:Several research papers discuss deep learning models (like CNNs and LSTMs) for predicting soil moisture content using satellite images (e.g., Sentinel-1, Sentinel-2, MODIS, SMAP data). These papers demonstrate the feasibility of image-based deep learning for soil moisture, but the raw image datasets are typically large and linked to satellite archives rather than standalone downloads. Sources:A comprehensive study of deep learning for soil moisture prediction - HESS Soil Moisture Prediction Based on Satellite Data Using a Novel Deep Learning Model - ResearchGate Soil Moisture Prediction from Remote Sensing Images Coupled with Climate, Soil Texture and Topography via Deep Learning - MDPI
Soil Nutrients Datasets for Deep Learning (Image-Based)
Predicting soil nutrient content directly from standard RGB visual images is more challenging than texture or moisture. Often, it requires hyperspectral imaging or spectroscopic data which provides more detailed chemical information beyond what the human eye can see. However, deep learning models can integrate various data sources for nutrient prediction.
  • Crop and Soil Dataset (Kaggle)While this dataset primarily contains numerical data (Nitrogen, Phosphorus, Potassium, pH, moisture, organic matter, etc.) rather than direct visual images for nutrient prediction, it is crucial for correlating visual characteristics (if combined with an image dataset) or other sensor data with nutrient levels. Source: Crop and Soil DataSet - Kaggle
  • Research on Deep Learning for Nutrient Prediction:Many studies use deep learning to predict soil nutrients, often leveraging hyperspectral images, near-infrared spectroscopy (NIR), or a combination of satellite data, climate data, and soil properties. Direct publicly available datasets consisting of visual soil images specifically labeled with nutrient content for deep learning are less common. Sources:Deep Learning-Based Soil Nutrient Content Prediction for Crop Yield Estimation - ResearchGate GeaGrow: a mobile tool for soil nutrient prediction and fertilizer optimization using artificial neural networks - Frontiers (mentions iSDAsoil for mapped soil properties via API, not direct images)
General Considerations for Deep Learning on Soil Images:
  • Data Collection: For specific research, you might need to collect your own images with corresponding lab measurements for texture, moisture, and nutrient content.
  • Preprocessing: Images often require preprocessing (resizing, normalization, augmentation, noise reduction) before being fed into deep learning models.
  • Feature Extraction: CNNs excel at automatic feature extraction from images, reducing the need for manual feature engineering.
  • Model Choice: Various CNN architectures (e.g., ResNet, AlexNet, Inception, MobileNet) are commonly used for image classification and can be adapted for soil analysis tasks. Transfer learning with pre-trained models is a common and effective approach.
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I am currently exploring the use of synthetic datasets in the healthcare domain, especially for training and testing AI models. Given the challenges in accessing real medical data due to privacy, availability, and ethical concerns, synthetic data generation has become a potential alternative.
I would like to ask :
  • How useful are synthetic datasets in addressing healthcare-related problems?
  • Can they be reliably used for disease prediction, diagnosis, or medical imaging applications?
  • What are the limitations and ethical considerations to be aware of?
Any insights, shared experiences, or references to recent work in this area would be greatly appreciated.
Thank you in advance for your valuable input!
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Yes, synthetic datasets are becoming increasingly valuable in the healthcare field. Since real medical data is highly sensitive and protected by strict privacy laws, it's not always easy for researchers or developers to access it. That’s where synthetic data comes in — it’s artificially created to look and behave like real patient data, but it doesn’t include any actual personal information.
This makes it a great option for safely building and testing healthcare technologies, like diagnostic tools or machine learning models, without risking anyone’s privacy. It also helps solve a common problem in healthcare data: missing or underrepresented cases. With synthetic data, researchers can simulate rare diseases or edge cases that might not appear often in real datasets.
Another big advantage is that synthetic data makes collaboration easier. Hospitals, research teams, and tech companies can share data-based insights without exposing real patient records. This can speed up innovation and help develop more accurate, fair, and inclusive healthcare solutions.
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I am currently exploring the use of synthetic datasets in the healthcare domain, especially for training and testing AI models. Given the challenges in accessing real medical data due to privacy, availability, and ethical concerns, synthetic data generation has become a potential alternative.
I would like to ask :
  • How useful are synthetic datasets in addressing healthcare-related problems?
  • Can they be reliably used for disease prediction, diagnosis, or medical imaging applications?
  • What are the limitations and ethical considerations to be aware of?
Any insights, shared experiences, or references to recent work in this area would be greatly appreciated.
Thank you in advance for your valuable input!
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Certainly, it is useful for testing the digital platforms and for developing AI based systems
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I am resizing high-resolution images (4056×3040×3) to 128×128×1 for CNN-based defect detection in 3D-printed parts because high-resolution images require more computational resources.
Could this lead to a loss of critical features and affect model performance? Any suggestions on better resizing strategies?
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Thank you all for your responses. I completely agree with the points raised by @Mr. Antonio Ruiz and @Mr. Adnan Majid regarding the use of tiles for handling high-resolution images. This approach will be beneficial for a CNN in detecting subtle defects and assessing their severity within the images.
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Responder a esta preguntas ayudará a profundizar el tema solo el aprendizaje en ámbito educativo.
-Pido la colaboración de todos mis following para dar respuestas claras y concisas , bastará con una breve explicación.
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Las estrategias más efectivas para lograr un aprendizaje profundo y desarrollar habilidades de pensamiento complejo son aquellas que invitan a los estudiantes a analizar, reflexionar, resolver problemas y aplicar lo que aprenden en situaciones reales. Entre ellas están el aprendizaje basado en proyectos, el trabajo colaborativo, los debates, el pensamiento crítico, y las preguntas abiertas.
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IEEE 2025 6th International Conference on Computer Vision, Image and Deep Learning (CVIDL 2025) will be held on May 23-25, 2025 in Ningbo, China.
Conference Website: https://ais.cn/u/AJFfEn
---Call For Papers---
The topics of interest for submission include, but are not limited to:
1. Vision and Image technologies
· Image-based computer graphics
· computational vision theory
· Image Analysis of the video
· Graphics modeling
· Image processing
· Image acquisition
· Image Segmentation
· Medical image processing
......
2. DL Technologies
· Caption generation
· Cognitive architectures
· Commonsense reasoningo Episodic reasoning
· Intelligent agents (e.g., planning and acting, goal reasoning)
· Machine learning (e.g., deep, reinforcement, statistical relational, transfer)
· Model-based reasoning Narrative intelligence
· Temporal reasoning Visual reasoning
3. DL Applications
· Ambient intelligence
· Autonomic computing
· Biomedical systems
· Computer games
· Image processing (e.g., security/surveillance tasks)
· Information retrieval and reuse
· Intelligent tutoring systems
· Language translation
......
---Publication---
All accepted full papers will be published in IEEE ( ISBN: 979-8-3315-2324-4) and will be submitted to IEEE Xplore, EI Compendex, Scopus and Inspec for indexing.
---Important Dates---
Full Paper Submission Date: May 16,2025
Registration Deadline: May 16, 2025
Final Paper Submission Date: May 16, 2025
Conference Dates: May 23-25, 2025
--- Paper Submission---
Please send the full paper(word+pdf) to Submission System:
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The IEEE 2025 6th International Conference on Computer Vision, Image and Deep Learning (CVIDL 2025) will be held from May 23 to 25, 2025, in Ningbo, China. This prestigious academic event invites scholars, researchers, and professionals from around the world to present original work in the areas of computer vision, image analysis, and deep learning technologies. Topics of interest span from vision-based graphics modeling, image segmentation, and medical imaging to deep learning architectures, cognitive reasoning, intelligent agents, and real-world applications such as surveillance, language translation, and autonomous systems. Accepted papers will be published with IEEE (ISBN: 979-8-3315-2324-4) and submitted for indexing in IEEE Xplore, EI Compendex, Scopus, and Inspec. Authors must submit their full papers (Word + PDF) by May 16, 2025, through the official submission portal https://ais.cn/u/AJFfEn. The conference provides a global platform for networking, sharing innovations, and discussing the future of intelligent systems, making it a valuable opportunity for academic and professional growth.
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What impact will the development of artificial intelligence technologies and applications, including the use of AI-equipped machines, robots, AI internet chatbots, AI virtual robots, AI agents, etc., in various sectors of the economy have on future labour markets? Will this result in the loss of many jobs for people or will new professions and jobs be created for people who operate IT systems, machines, robots, chatbots, etc. equipped with artificial intelligence technology? Will the negative effects outweigh the positive ones or vice versa?
In my opinion, the development of artificial intelligence technologies and applications, including the use of AI machines, robots, AI chatbots, AI virtual robots and AI agents in various sectors of the economy, will probably have a major impact on future labour markets. As a result of the changes in the labour market caused by the development of AI applications, some human professions will become less important and some jobs will be lost, while new professions and jobs will be created for people who operate IT systems, machines, robots, chatbots, etc. equipped with artificial intelligence. equipped with artificial intelligence technology.
The coming era of artificial intelligence, referred to as the fifth technological revolution, Industry 5.0, will bring about profound changes in labour markets that require careful analysis and preparation. On the one hand, progressive automation driven by AI will inevitably lead to the elimination of many jobs, especially those based on routine and repetitive tasks, which may result in increased unemployment in certain sectors. On the other hand, the development of AI will open up new job opportunities, creating demand for specialists in fields such as AI engineering, data analysis and AI ethics. In addition, many existing jobs will be transformed and workers will need to acquire new skills to work effectively with intelligent systems. The key challenge will therefore be to adapt to these changes by investing in education and training that will enable workers to retrain and acquire the skills of the future. Research plays an invaluable role here, providing knowledge about trends in labour markets, identifying occupations at risk of automation and forecasting the demand for new skills, which will enable the development of effective adaptation strategies.
The research and observations I have conducted show that artificial intelligence technology has been developing rapidly in recent years and is finding new applications, with new opportunities and threats emerging. I have described the main determinants, including the potential opportunities and threats to the development of artificial intelligence technology, in my article below:
OPPORTUNITIES AND THREATS TO THE DEVELOPMENT OF ARTIFICIAL INTELLIGENCE APPLICATIONS AND THE NEED FOR NORMATIVE REGULATION OF THIS DEVELOPMENT
Please write what you think about this issue. Do you see more risks or opportunities associated with the development of artificial intelligence technologies?
And what is your opinion on this topic?
Please reply,
I invite everyone to the discussion,
Thank you very much,
Best regards,
I invite you to scientific cooperation,
Dariusz Prokopowicz
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"While we don’t often associate the archaic traditions of the Catholic Church with tech disruption, Pope Leo XIV used his inaugural address to the College of Cardinals to highlight the risks of AI to “human dignity, justice and labor”. He went on to describe the “immense potential” of AI, also warning we must “ensure that it can be used for the good of all”.
The name Leo dates back to Pope Leo XIII, the Vatican’s head honcho in the late 19th century, who made similar warnings about the Industrial Revolution; that governments must “save unfortunate working people from the cruelty of men of greed, who use human beings as mere instruments for money making”, while also waxing about the “marvellous discoveries of science”.
To me, it’s a reminder that AI will continue to touch every corner of society — even institutions that have been around for nearly two millennia.
- Josh Axelrod, editor, Nature Briefing: AI & Robotics
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How can the implementation of artificial intelligence help in terms of the automated process of analysing the sentiment of the content of posts, posts, banners, etc. posted by Internet users on popular online social media, analysing changes in opinion on specific topics, changes in trends of general social awareness, etc. conducted using computerised Big Data Analytics platforms?
How can the computerised analytics system architecture of Big Data Analytics platforms used to analyse the sentiment of Internet users' social media activity be improved using the new technologies of Industry 4.0, including but not limited to artificial intelligence, deep learning, machine learning, etc.?
In recent years, analytics conducted on large data sets downloaded from multiple websites using Big Data Analytics platforms has been developing rapidly. This type of analysis also includes sentiment analyses of changes in Internet users' opinions on specific topics, issues, opinions on product and service offers, brands of companies, public figures, political parties, etc., based on verification of thousands of posts and comments, answers given in discussions posted on social media sites. With the ever-increasing capabilities in terms of computing power of new generations of microprocessors and the speed of processing data stored on increasingly large digital storage media, the importance of increasing the scale of automation of the processes carried out during the aforementioned sentiment analyses is increasing. Certain new technologies of Industry 4.0, including machine learning, deep learning and artificial intelligence, are coming to the aid of this issue. I am conducting research on the process of sentiment analysis of the content of posts, posts, banners, etc. posted by Internet users on popular online social media, analysis of changes in opinion on specific topics, changes in trends of general social awareness, etc. conducted using computerised Big Data Analytics platforms. I have included the results of these studies in my articles on this subject. I have also posted these articles after publication on my profile of this Research Gate portal. I would like to invite you to join me in scientific cooperation on this issue.
In view of the above, I address the following question to the esteemed community of scientists and researchers:
How can the implementation of artificial intelligence help in terms of the automated process of analysing the sentiment of the content of posts, posts, banners, etc. posted by Internet users on popular online social media, analysing changes in opinion on specific topics, changes in trends of general social awareness, etc. conducted using computerised Big Data Analytics platforms?
What do you think about this topic?
What is your opinion on this subject?
Please respond,
Please answer with reasons,
I invite you all to discuss,
Thank you very much,
The following articles are related to the above issues in some respects:
OPPORTUNITIES AND THREATS TO THE DEVELOPMENT OF ARTIFICIAL INTELLIGENCE APPLICATIONS AND THE NEED FOR NORMATIVE REGULATION OF THIS DEVELOPMENT
APPLICATION OF DATA BASE SYSTEMS BIG DATA AND BUSINESS INTELLIGENCE SOFTWARE IN INTEGRATED RISK MANAGEMENT IN ORGANISATION
The importance of Big Data Analytics technology in business management
The role of Big Data and Data Science in the context of information security and cybersecurity
I invite you to collaborate with me on scientific projects.
Warm regards,
Dariusz Prokopowicz
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Dear Researchers, Scientists, Friends,
I am pleased to observe the current relevance and dynamic development of the issues related to the use of artificial intelligence in the analysis of internet users' sentiment, which is confirmed by the interest of researchers and scientists on the Research Gate portal. I am also pleased with the diversity of perspectives and proposed research paths in response to the posed question.
Regarding the research question: "How can the implementation of artificial intelligence in big data analysis help in analyzing the sentiment of internet users in social media?" and the presented description of the research problem, from the perspective of my research on the application of artificial intelligence methods in the analysis of textual data and opinions in social media, I believe that this question is extremely pertinent and touches upon a key aspect of contemporary online analytics. With the rapidly growing amount of data generated in social media, traditional sentiment analysis methods are becoming insufficient due to their scalability and ability to capture subtle linguistic nuances and the context of statements. The implementation of advanced artificial intelligence algorithms, including machine learning and deep learning, offers revolutionary possibilities in terms of automating and increasing the precision of sentiment analysis. In my opinion, the key here is to leverage AI's ability to recognize complex linguistic patterns, irony, sarcasm, and cultural context, which allows for obtaining much more reliable and in-depth conclusions about the sentiment of internet users.
The question "How can the implementation of artificial intelligence in big data analysis help in analyzing the sentiment of internet users in social media?" remains current and significant. It is worth continuing the discussion in this area and undertaking or continuing research in this area to more fully explain various issues and obtain a complete answer to this question. The relevance of this question is multifaceted:
- Ever-increasing amount of data in social media: Huge amounts of text, opinions, and comments are generated daily, which constitute an invaluable source of information about social sentiment.
- Evolution of online language and communication: The language used in social media is dynamic, full of slang, abbreviations, and irony, which poses a challenge for traditional sentiment analysis methods.
- The need for fast and effective real-time analysis: For many business and social applications, it is crucial to monitor changes in sentiment in real-time, which requires advanced, automated tools.
- Development of AI technology: Continuous progress in the field of artificial intelligence and machine learning opens up new possibilities in the analysis of textual data.
New research areas in this problem may include:
- Developing more advanced deep learning models that take into account the situational and cultural context of utterances.
- Researching methods for dealing with multilingualism and the specifics of language on different social media platforms.
- Utilizing AI-powered data visualization techniques for a more intuitive presentation of changes in sentiment and opinion trends.
- Analyzing the impact of disinformation and bots on shaping sentiment in social media.
- Studying the ethical aspects of using AI for public opinion analysis and potential abuses.
Determinants shaping the key issues of this problem include, among others: technological advancements in AI and Big Data, the availability and quality of data from social media, the development of text analysis algorithms, computing power, legal regulations regarding privacy and personal data, and business and social demand for effective sentiment analysis.
I would like to sincerely thank all researchers and scientists for their valuable contribution to this discussion. I am open to scientific collaboration in this fascinating field and in the interdisciplinary linking of this issue with other areas of knowledge, such as linguistics, social psychology, marketing, and political science. In view of the current relevance and developmental nature of the discussed issues, I invite you to further continue the discussion, sharing your insights and ideas for future research.
I invite you to discuss this issue and to engage in scientific cooperation,
Best wishes,
Dariusz Prokopowicz