Category Archives: Uncategorized

Mathematical Reasoning In Environmental Decision-Making And Policy Formation

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Authors: Jag Pratap Singh Yadav

Abstract: Mathematical reasoning is now essential in the making of environmental decisions and policies in that it offers a means by which environmental dynamics can be modeled in order to identify uncertainties and evaluate policy alternatives. Mathematics not only serves to assist institutions in making sound environmental decisions; it defines for such institutions what constitutes an environmental problem and what can be done about it legally. The current essay explores the use of mathematical reasoning in the development of environmental policy. Specifically, it will examine the mathematical methodological basis of dynamical system theory, probability theory, optimization theory, and game theory in order to explore their implementation into regulatory regimes through integrated assessment models, cost-benefit analysis, and threshold regulation. With references to the development of cap-and-trade programs, management of fish stocks by targeting maximum sustainable yield, and carbon valuation through the social cost of carbon, the article shows how mathematical modeling can result in extremely successful policy frameworks when used in combination with institutional coherence and ecological sensibility, but also how false precision, biased assumption and value-laden ethical considerations can be concealed behind formal mathematical modeling. At the same time, the limitations of the conventional approach to the use of mathematical models in environmental policy making are discussed in relation to uncertainties and political tensions, as well as the dangers associated with excessive formalization and optimization, which can lead to indecision or to the depoliticization of value disputes. The key thesis developed in the paper is the need to recognize that mathematical models have power and must be subjected to reflection, criticism and democratic debate because they form the mediating language for making sense of the world and cannot remain apolitical and value-free.

DOI: https://doi.org/10.5281/zenodo.19835245

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Mathematical Perspectives on Sustainable Development Goals (SDGs) and Environmental Planning

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Authors: Jag Pratap Singh Yadav

Abstract: The increasingly urgent need for action under the 2020 Agenda has shown weaknesses in traditional environmental planning methods that view Sustainable Development Goals (SDGs) as independent and linearly achievable targets. In this paper, we establish a model that uses mathematics to reconfigure environmental planning into a nonlinear process, driven by interactions and bound by ecological principles. Considering biosphere-centered SDGs, the research formulates sustainability as a human-environment system where the dimensions of goals are shaped by inherent dynamics, intergoal linkages, and optimal policies. The suggested model framework employs a network of interactions to model the contextual dependency among the SDGs, state dynamics characterized by non-linearities to account for threshold and feedback effects, and planetary boundary restrictions for ecological plausibility. The environmental decision-making process is designed as a dynamic optimization model under uncertainty, where the total accomplishment of the SDGs is traded off against costs and the ecological bounds imposed by the planetary boundaries. To make use of the model, a database structure based on multiple sources of information, including earth observation systems, development indicators, and SDG databases, is created. The example of the Amazon basin application shows the importance of the framework both analytically and practically. The comparison between the Business-as-Usual scenarios and the mathematically optimal interventions shows that traditional methods result in fragmented progress and growing pressure on ecosystems, while the use of optimization improves system integration and leads to better results. The sensitivity analysis performed via Monte Carlo methods proves that this effect remains even under conditions of high uncertainty and worsened climatic conditions. The results will help advance the field of sustainability science because they will provide a replicable and policy-relevant structure to study the interaction between the SDGs. The research concludes that meeting the objectives of the SDGs would require an approach that moves away from optimizing individual sectors and goals independently towards using more holistic and dynamic approaches to planning that incorporate interactions between goals and constraints imposed by natural boundaries.

DOI: https://doi.org/10.5281/zenodo.19835078

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Global Warming And Human Survival: A Mathematical Philosophy Approach To Environmental Sustainability

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Authors: Jag Pratap Singh Yadav

Abstract: This thesis builds an interdisciplinary paradigm of how global warming needs to be considered as a crisis for the very existence of humankind and not just as a problem related to environmental studies and policies. A crucial limitation of the research is found between empirical climatology and normative ethics, and both are inadequate to analyze the issues associated with the risk of climate change. To fill in this gap, the thesis employs mathematical philosophy, applying the instruments of Bayesian epistemology, decision, game, and moral philosophies. Epistemically, what is shown is that while climate uncertainty may feature non-linearity, feedback mechanisms, and tipping points, it should not act as an excuse for not taking action. Rather, when viewed using the tools of Bayesian logic, fat tail risks, and Pascal’s wager approach, uncertainty acts as a strong rationale for preemptive action to be taken. From a strategic point of view, the research paper considers climate change as a game of asymmetric players with multiple agents and multiple generations. The analysis demonstrates that the traditional models of collective action cannot capture the differences in the degree of responsibility, vulnerability, and institutional capability among the parties. In applying the concept of game theory to the long-term decision-making process, the paper reveals the asymmetry between the two generations – present and future – from the ethical perspective, which states that any choice made by one generation will irrevocably alter the opportunity set for the other generation. Moreover, the paper examines flaws in traditional economic approaches to climate change valuation, such as the discounting of future well-being using positive pure time preference. It is shown that such an approach undermines the value of future generations and is inherently biased towards procrastination. On the contrary, the combination of almost zero interest rates and the priority-based welfare principle can provide a more logically consistent approach to environmental management, maintaining temporal impartiality and giving priority to disadvantaged groups in the current and future generations. The main conclusion of this research is that sustainability in terms of environmental protection must be considered as a basic axiom of rational and ethical choice when making decisions in the context of existential threats. Taking into account the uncertainty factor, catastrophic risks, dependency and justice, the paper provides a new definition of environmental sustainability, which is an important prerequisite for ensuring the survival of humanity. The conclusions made have practical implications related to the need for effective global climate.

DOI: https://doi.org/10.5281/zenodo.19834826

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Comparative Analysis Of Machine Learning Regression Techniques For Used Car Price Prediction: Linear Regression Versus Random Forest

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Authors: Dr. Jasjit Singh Samagh, Urvita and Chandan

Abstract: Accurate valuation of used automobiles remains a critical challenge in the automotive resale market, where traditional manual estimation methods suffer from inconsistency, subjectivity, and limited scalability. This paper presents a comprehensive comparative analysis of two fundamental machine learning regression techniques—Linear Regression and Random Forest—for automated car price prediction. We developed and evaluated two complete prediction systems: a web-based application using Linear Regression integrated with Streamlit, and a desktop GUI application employing Random Forest with Tkinter interface. Both systems were trained and tested on comprehensive used car datasets comprising over 6,700 vehicle records with features including brand, manufacturing year, kilometers driven, fuel type, transmission type, ownership history, engine specifications, and market pricing. The Linear Regression model achieved an R² score of 0.87, Mean Absolute Error (MAE) of 0.34 lakhs, and Mean Squared Error (MSE) of 0.18, while the Random Forest approach demonstrated superior performance with R² score of 0.94, MAE of 0.28 lakhs, and MSE of 0.60. Our comparative analysis reveals that Random Forest's ensemble learning approach captures non-linear relationships more effectively, achieving 7% higher variance explanation than Linear Regression, though at increased computational complexity. Statistical significance testing confirms that Random Forest's performance improvement is statistically significant (p < 0.01). Both systems provide real-time predictions through user-friendly interfaces—web-based for broader accessibility and desktop-based for offline usage. This research contributes practical insights into algorithm selection for automotive price prediction, demonstrating trade-offs between model simplicity, interpretability, and accuracy while providing deployment-ready solutions for diverse stakeholder requirements.

DOI: https://doi.org/10.5281/zenodo.19830626

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Design Of Reinforcement Learning Grid World Navigation System Using Rewards And Penalties: Q-Learning, SARSA And Double Q-Learning

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Authors: Prachi Durge, Mahek Shribas, Mohanish Lanjewar, Parth Gadwal, Pranay Wadibhasme, Pranjali Nakhate

Abstract: This paper presents a systematic comparative study of three tabular reinforcement learning (RL) algorithms—Q-Learning,State-Action-Reward-State- Action (SARSA), and Double Q-Learning—deployed within a configurable stochastic GridWorld environment. The environment incorporates slip-based stochastic transitions, trap cells, potential-based reward shaping grounded in the theoretical guarantees of Ng et al. [1], and partial observability modes. The central research hypothesis investigates whether Double Q-Learning’s decoupled selection-evaluation mechanism demonstrably reduces maximization bias compared to vanilla Q-Learning, particularly under elevated stochastic transition probabilities. An interactive web-based research platform is developed using Flask and Chart.js, enabling real-time policy visualization, value-function heatmaps, Q-table analysis, and multi-seed benchmark comparisons with confidence intervals. Experimental results across three canonical grid configurations demonstrate that Double Q- Learning achieves superior convergence stability and reduced overestimation in high-slip environments, while SARSA exhibits inherently conservative on-policy behavior that trades off peak performance for robustness near traps.

DOI: https://doi.org/10.5281/zenodo.19830361

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ExplorAR Glasses: An Intelligent Augmented Reality Travel Assistance System Using Geolocation, Contextual Intelligence, And Multimodal Services

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Authors: Yashvi Rajiv Vyas, Mohammad Armaan, Rida Sadiqa, Sarayu Anand Gongada, Mohammed Sufyan, Dr. Chandrasekhar V (Project Giude)

Abstract: ExplorAR Glasses is an intelligent augmented reality (AR)-based travel assistance system designed to enhance real-world exploration through contextual digital augmentation. The system integrates geolocation, artificial intelligence, computer vision, and real-time API services to deliver immersive, hands-free assistance to users. By combining GPS-based location tracking, AI-generated contextual insights, OCR-based translation, weather forecasting, and voice interaction, ExplorAR enables users to interact with their surroundings in a seamless and intuitive manner. The system is built using a modular architecture consisting of a lightweight mobile client and a cloud-based backend. The backend leverages large language models (LLMs) for contextual information generation, while external APIs provide navigation, translation, and environmental data. The frontend prototype, developed using a cross-platform framework, serves as an intermediary between device sensors and backend services. The solution is designed to be scalable and adaptable for integration with wearable AR devices such as smart glasses. This project demonstrates how emerging technologies can be combined to create a real-time, context-aware digital assistant that improves accessibility, travel experience, and user interaction with physical environments.

DOI: https://doi.org/10.5281/zenodo.19828864

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Ai Based Dynamic Pricing Engine

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Authors: Arayan Gandre, Swaraj Sakpal, Unmesh Nhavelkar, Vedant Gaikwad, Prof. Smita Pawar

Abstract: In today’s highly competitive and data- driven marketplace, pricing strategy has become a decisive factor in determining a company’s profitability, customer satisfaction, and long-term sustainability. Traditional static pricing models, which rely on fixed markups or manually updated price lists, are often inadequate in responding to the dynamic nature of modern markets. These methods struggle to adapt to frequent fluctuations in consumer demand, competitor actions, supply chain disruptions, and seasonal influences. This research presents the design and development of an Artificial Intelligence (AI)-based Dynamic Pricing Engine that autonomously predicts and optimizes product prices in real time. The proposed framework integrates a variety of heterogeneous data sources — including historical sales transactions, customer purchasing behavior, inventory levels, market demand elasticity, and competitor pricing trends — to generate context-aware pricing recommendations. The system employs a hybrid machine learning approach: regression-based models are used for short- term price prediction, while reinforcement learning techniques enable continuous self-improvement through feedback-driven optimization. A prototype implementation was tested using real-world re- tail and e-commerce datasets to evaluate its effectiveness. The experimental results demonstrate that the AI-driven dynamic pricing model significantly enhances revenue optimization, profit margins, and inventory turnover compared to traditional rule- based or static pricing systems. Moreover, the model exhibits rapid adaptability to demand shifts and improved decision- making accuracy under volatile market conditions. The findings highlight the transformative potential of AI in automating strategic business decisions and emphasize the scalability and robustness of intelligent pricing systems. This study contributes to the broader field of intelligent commerce by providing a data-centric, adaptive, and scalable solution for modern enterprises seeking to maintain competitiveness in the evolving digital economy.

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Design Of A DC-DC Buck Converter With ClosedLoop Control For Low-Power Applications

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Authors: Sareddy Prasanna Reddy, Dr. P. Kowstubha, Parameshwari Rathod, Barla Ananda Sagar

Abstract: This paper presents the design and implementation of DC-DC buck converter using a digital PI control technique. The system converts a 24V DC input into a regulated 12V DC output. An microcontroller is used to implement closed-loop control and generate PWM signals. The controller continuously monitors the output voltage and adjusts the duty cycle to maintain stable output under different load conditions. The converter achieves an efficiency of around 90% with good voltage regulation. The results show that the proposed system is suitable for low-power embedded applications.

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Exploring Trends In Job Postings And Salaries Across Different Industries

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Authors: Ms.C. Harivarshini, Ms.M. Shubhashree, Dr.R. Karthik

Abstract: The global workforce is undergoing rapid evolution. Current data-driven research into worldwide employment trends thus has become a pressing need. The objective of the present study was to conduct a comprehensive analysis of job advertisements and salary trends by reviewing 999 job records collected from 213 countries; these included a total of 13 data points. As part of its analytic process, the present study utilized a data preprocessing pipeline that involved the passing of data through multiple stages – data cleansing, data type conversion, aggregation, data partitioning, normalization, etc., prior to submission to various data visualisation techniques; these included bar charts, histograms, box plots, scatter plots, correlation heat maps, skills frequency heat maps, pie charts, violin plots, and choropleth maps. Among the most significant findings of the present study were the following: job advertisements show evidence of consistent salary levels based on both level of education and type of job; however, geographic region and industry sector appear to play an important role in determining salary levels. Additionally, the study concluded that the most common skills necessary for attaining such salaries are as follows: management skills; analytical skills; design skills; communication skills; and technical/data oriented skills. Consequently, the authors propose a framework that can be used to better understand the trends of employment and provide actionable insights into the employment market.

DOI: https://doi.org/10.5281/zenodo.19816389

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Roboclean: Automated Garbage Collection With Conveyor Mechanism

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Authors: P Sudhakar Reddy, Pothireddy Nithisha, Sakamuru Hari priya, Saggam Ranjith Kumar, Panditi Prem Kumar, Yagnam setty chaithanya kumar

Abstract: Increasing water pollution due to floating solid waste in rivers, lakes, and drainage canals has become a major environmental concern, and manual waste collection in water bodies is inefficient, unsafe, and time-consuming. This project presents Roboclean, an ESP32-based automated garbage collection system designed specifically for collecting floating waste from water surfaces using a conveyor belt mechanism. The system employs dual conveyor belts driven by DC motors through motor driver modules to lift and transfer waste from water to a collection bin. An ESP32 microcontroller acts as the central control unit, coordinating motor operations and system monitoring. IoT connectivity using the Blynk platform enables real-time remote control and monitoring of the system through a mobile application. A 16×2 LCD display provides on-site status information, while a regulated power supply ensures reliable operation. By automating floating waste collection and enabling remote supervision, the proposed system reduces manual labor, improves safety, and enhances cleanliness of water bodies. Roboclean offers a cost-effective and scalable solution suitable for rivers, lakes, sewage canals, and smart city environmental management applications.

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