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Daily Archives: April 28, 2026

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The Role Of Telemedicine In Post-Pandemic Healthcare

Authors: Mohammed Afsal

Abstract: The COVID-19 crisis reshaped healthcare systems across the world in ways never seen before. As hospitals struggled to manage rising infection rates, traditional face-to-face consultations quickly became risky. In response, healthcare providers rapidly turned to telemedicine as a safer and more practical alternative. What initially began as an emergency response soon demonstrated long-term value. Virtual healthcare services have since proven effective in expanding access, improving chronic disease management, reducing operational costs, and maintaining continuity of care. This paper examines how telemedicine evolved during the pandemic, the technologies that support it, the benefits and limitations it presents, and its growing importance in shaping the future of global healthcare delivery.

DOI: https://doi.org/10.5281/zenodo.19845945

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Machine Learning based Wind Energy Forecasting for Energy Management in Microgrid Applications

Authors: P. Hemeshwar Chary, Akula Nikhila, Balusuguri Navya, Kotaraviteja

Abstract: This paper is about building hardware for a machine learning system that forecasts wind energy and ties it into an energy management setup for microgrids. It seems like the main idea is to use this optimized thing called Variational Mode Decomposition along with CNN-LSTM for the predictions, and then a Deep Reinforcement Learning approach for handling the energy side. What stands out is how they actually built a real prototype to test it, not just simulations like a lot of other studies do. The setup includes emulating wind data, some microcontroller to control things, a battery for storage, loads that can be adjusted, and a way to connect to the grid. I think that makes it more practical, you know. They ran experiments and got better accuracy in forecasting, plus the energy dispatch worked efficiently in real time. It feels like this could help make microgrids more reliable, cut down on costs, and keep everything running stable. Some parts of the implementation might still need tweaking, but overall it shows promise. The forecasting part with VMD and the neural nets seems key to why it performs well. Index Terms—Wind energy is something thats getting a lot more attention these days, especially with all the push for renewable stuff. Forecasting how much power the wind will give is tricky because wind changes so much, right. I think using models like CNN and LSTM can help predict it better. CNN is good for spotting patterns in data, like images but here its time series from wind speeds. Then LSTM handles the sequences over time, remembering past stuff to guess future outputs. It seems like combining them makes the forecasts more accurate, at least from what Ive read. VMD comes in too, which I believe stands for Variational Mode Decomposition. Its a way to break down the noisy wind data into smoother parts, so the model doesnt get confused by all the ups and downs. Without that, predictions might be off. I might be oversimplifying this, but it feels like preprocessing the signal with VMD first improves everything. For energy management systems, once you have a good forecast, you can plan better. Like deciding when to store extra power or switch sources. In a microgrid, thats super important because its small scale, maybe for a community or island. Hardware implementation is the next step, turning the software models into real devices. Ive seen papers on using FPGAs or something for that, to make it fast and efficient on actual turbines. Microgrid applications tie it all together. Wind forecasting with these tools helps balance the grid, reduces waste. Some people say its not perfect yet, others think its ready for more use. That part stands out to me, how it could really change things but still has challenges like cost. Overall, this approach seems promising, though Im not totally sure about the hardware side yet.

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Deep Learning-Based Detection Of Plant Diseases Using Leaf Image Analysis

Authors: Shweta Patnaik, Stanli Jena

Abstract: Now a days Plant diseases significantly affect agricultural productivity and food security by reducing crop yield and quality. Traditional methods of disease detection rely on manual inspection, which is time-consuming, labour intensive, and often prone to human error. To overcome these limitations, automated approaches based on computer vision and deep learning have been developed for accurate plant disease detection. This study presents a method for identifying and classifying plant diseases using leaf image analysis. The proposed system utilizes computational models to analyse visual features of leaf images and detect disease patterns with improved accuracy. Image preprocessing techniques, including noise removal, resizing, and normalization, are applied to enhance image quality and ensure consistency in model input. The performance of the system is evaluated using standard metrics such as accuracy and precision. The results demonstrate that the proposed approach provides more reliable and efficient disease detection compared to conventional methods. Furthermore, the system offers a cost-effective solution that can assist farmers in early diagnosis and management of plant diseases. This approach highlights the potential of image- based automated systems in supporting precision agriculture and improving crop health monitoring.

DOI: https://doi.org/10.5281/zenodo.19844732

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CLARA.AI: An On-Premise LLM-Powered Academic Administration and Analytics Platform

Authors: Dhyanesh M, Dharshini S, Deepak P, Aisha Amna A

Abstract: Indian engineering institutions face significant administrative bottlenecks, ranging from repetitive circular drafting to manual, error-prone data entry for university mark sheets. CLARA.AI (Comprehensive LLM-powered Academic Resource Administrator) is a full-stack, AI-driven platform designed to automate and augment these critical workflows. Operating entirely on-premise to ensure data privacy, the system integrates a local Large Language Model (Llama 3.1 and 3.2 via Ollama) with a Django-based Model-View-Template architecture. Key innovations include an AI Circular Generator that overlays dynamically drafted text onto institutional letterheads, and an Intelligent Academic Analytics engine that utilizes coordinate-based table extraction and LLM metadata enrichment to parse complex PDF mark sheets. Furthermore, CLARA.AI features a hybrid Natural Language Query (NLPQ) pipeline and a robust four-tier Role-Based Access Control (RBAC) system. By seamlessly unifying data management and generative AI without relying on external cloud APIs, CLARA.AI represents a paradigm shift in secure, intelligent educational administration.

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Anesthesia Prediction For Optimizing Patient Sedation Using Support Vector Regression,XG Boost And Transformer Model

Authors: Ms.M.Devika, Mandyam Rohith Reddy, Kale Umamaheshwara Rao, Tamilarasan

Abstract: To maximize patient safety and comfort during medical procedures, effective anesthesia management requires closely monitoring and administering anesthesia for every procedure performed. If medications are not given to the appropriate degree of sedation, there could be potential complications or issues with correctly and efficiently completing the procedure. This paper will cover the development of an AI-based system using machine learning algorithms, including support vector regression (SVR), extreme gradient boosting (XGBoost), and transformer-based (Txb) models, to predict dosage(s) of anesthesia based on clinical information from the patient (demographics/vital signs/medical history) as well as characteristics associated with the procedure. Previous experiments have shown that the advanced machine learning methods discussed above yield greater accuracy and reliability than established methodology currently employed in anesthesia practice to estimate ideal anesthesia dosages. The proposed system will allow anesthesiologists to determine the appropriate dosage(s) of anesthesia to reduce exposure to risk and improve healthcare delivery efficiency through quality data to support better informed decisions.

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Intelligent Monitoring Of Water Quality: Leveraging Data Science And Machine Learning For Environmental Sustainability

Authors: Uzair Aman Syed, Prof. Sangeeta Vhatkar

Abstract: Water pollution poses significant threats to human health and the environment. The existing approaches to water quality measurement through hand sampling and the use of chemicals have two significant weaknesses: they are slow in delivery and do not cover all fields. According to the researchers, the AI based system that combines sensor networks with machine learning algorithms and real-time predictive models was designed to accomplish the following objectives: The system ensures continuous monitoring of the indicators of water quality. The system applies the correct techniques to estimate the concentra- tions of water pollutants. The system creates helpful measures that are used to deal with cases of water contamination. The experimental results have shown that the method proposed is very accurate in detection and response time is better than those of the conventional methods therefore making optimal decisions regarding environmental agencies and policymakers.

DOI: https://doi.org/10.5281/zenodo.19836127

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