Abstract
In nature daily we encountered with complex structures including the structure of human body. A fractal is a never-ending pattern. Fractals are infinitely complex patterns that are self-similar across different scales. They are created by repeating a simple process over and over in an ongoing feedback loop. Driven by recursion, fractals are images of dynamic systems – the pictures of Chaos. Geometrically, they exist in between geometrical dimensions. Fractal patterns are extremely familiar, since nature is full of fractals. Selfsimilar objects look the same on any scale; no matter how many times you magnify it, it will look similar. Fractals are composed of smaller versions of itself. The most important fractals are the Mandelbrot-set, Julia set, Cantor set, Henon attractor, Rossler attractor, Lorenz attractor, Ikeda attractor, Horseshoe map, Chua’s circuit, Lyapunov exponent. A fractal canopies is created by taking a line segment and splitting it into two smaller segments at the end. Iterate this process infinitely. A fractal canopies has the following properties: the angle between two neighboring line segments has to be the same throughout the fractal; the ratio of the lengths of consecutive lines must be constant; points at the end of the smallest line segments should be interconnected. Fractal dichotomous branching is seen in the lung, small intestine, blood vessels of the heart, and some neurons. Fractal branching greatly amplifies the surface area of tissue, be it for absorption (e.g. lung, intestine, leaf mesophyll), distribution and collection (blood vessels, bile ducts, bronchial tubes, vascular tissue in leaves) or information processing (nerves).
Biography
Prof. Rashmi Bhardwaj, Fellow of Institute of Mathematics & Applications (FIMA) (UK); Assessor, National Assessment and Accreditation Council (NAAC), UGC, Government of India; Fellow of Indian Society for Mathematical Modelling and Computer Simulation (FISMMACS), under IIT Kanpur, India and working as Professor of Mathematics & Head of Nonlinear Dynamics Research Lab, University School of Basic & Applied Sciences (USBAS), Guru Gobind Singh Indraprastha University (GGSIPU), New Delhi, India. Recipient of Government of India, India Meteorological Department (IMD) 27th Biennial MAUSM Award. Visiting Associate of Inter University Center for Astronomy & Astrophysics (IUCAA) Pune, Young Scientist Award of All India Council for Technical Education (AICTE), Government of India. Best Researcher Award of GGSIPU (3 consecutive years.) Topper of University of Delhi with 100% marks in Integral equation & Boundary value problem. Also, the topper of Zakir Husain college University of Delhi in M.Sc. (Mathematics) and B. Sc (Hons.) (Mathematics) examination. Life Time Achievement Award 2022 in Nonlinear Dynamics; Bharat Mata Abhinandan Samman 2022, PAAI International Award for Education Excellence 2021; FoXclues India Prime Top 100 Women Icon Award 2021; Lifetime Achievement Award 2021 for International Scientist Awards on Engineering, Science and Medicine; Dr. Sarvepalli Radhakrishnan Distinguished Professor Award 2021 in Applied Mathematics;; Best Researcher Award 2020 - International Research Award on New Science Inventions NESIN 2020; GGSIPU Indraprastha University Internal Quality Assurance Cell (IIQAC) four certificate of Appreciation along with cash of Rs. 10000/-. 4 patents, 250 research papers & book chapters, 9 books, 15 Ph.D. supervised and 6 are presently working. 28 years teaching and 33 years research experience. Visited, attended and delivered 450 invited Lectures in International/National conferences. Subject Reviewer for many International Journals of repute. Life member of several international organizations in the sphere of Mathematical Sciences including Indian National Science Congress. Attended/ delivered talks and Chaired Technical Sessions at reputed academic conferences/ workshops across the world Established Nonlinear Dynamics Research Lab and Mathematics Lab in GGSIPU. Member of Sectional Committee -Section of Mathematical Sciences (including Statistics) for 2020-2021, 2019-2020 (108th and 107th Session of Indian Science Congress); The Indian Science Congress Association (Department of Science & Technology, Ministry of Science & Technology, Government of India).
Abstract
Wood is a raw material that is in high demand because it is renewable, environmentally friendly and can be used in various industries. Therefore, a lot of people are asking themselves in which direction the woodworking experiments should go.
Progress in woodworking must include efficiency in the production process, modernization of machinery as well as production processes, better product quality and energy savings.
The requirements for furniture manufacturers are that the resulting coatings should be resistant to mechanical factors (abrasion, impact, scratching) show good adhesion to the substrate and have high aesthetic and decorative features.
UV lacquer products belong to a very interesting solution. There were recently introduced into wood companies' technologies for finishing wood species and wood-based composites using acrylic or waterborne UV products. In this presentation some principles of UV technology were presented.
Based on the carried out investigations and published papers, results of research was shown.
Biography
Dr. Tomasz Krystofiak in 1994 was finished study of Faculty of Wood Technology at Agriculture Academy in Poznan. In 2002 he prepared a PhD dissertation and in 2019 habilitation. Author or co-author of more than 300 scientific publications in the scope of gluing and finishing of wood and wood based composites. To his research activities belongs surface phenomena, wettability, adhesion and adherence, modification, gluability and paintability of lignocellulosic materials. He was a Management Committee Member of COST Actions FP1006 and CA15216 and Working Group Member (FP1303 and FP1407). Since 2021 Guest Editor in 6 Special Issues in Coatings, Forests, Materials journals.
Abstract
Prepregs are one of the most common raw materials for manufacturing composite components due to the possibility of obtaining higher strength, uniformity and reproducibility, reduced waste during manufacture and shorter curing times. In the process of manufacturing a prepreg, it is necessary to combine the fibres with the resin to obtain reels of this material. However, if the equipment's rollers are not aligned, the resin film deviates from them, which leads to product defects, wastage and increased manufacturing costs. In the context of this equipment, this work has two main objectives. On the one hand, the aim is to develop a mechanical roller clamping system that allows the rollers to be calibrated. As the rollers that guide the film through the process have three different types, it is necessary to develop a solution applicable to each type of roller. On the other hand, the aim is to develop an electronic system capable of measuring the alignments between rolls and transmitting the acquired data to a graphic interface. Interoperability with a supervisory interface is a fundamental requirement, as the operator will be able to visualise misalignments between rollers in real time and the necessary measures to be taken to ensure correct alignment between them. As a result of this work, the solutions developed were implemented in the equipment, the stipulated experimental validations were carried out and a functional, efficient process was achieved, allowing the equipment to be used for the manufacture of prepregs with the necessary requirements for industrial use.
Biography
Raul Campilho is an Auxiliar Professor at ISEP – School of Engineering, Porto, Portugal. He participated in 112 event(s). He supervised 5 PhD thesis(es) and e co-supervised 1. He Supervised 167 MSc dissertation(s) e co-supervised 73. He has received 16 awards and/or honors. He Participates and/or participated as Principal investigator in 1 project(s) and Researcher in 6 project(s). His research area includes material joining, adhesive joints, material characterization, polymers, composite materials, sandwich structures, advanced manufacturing systems, automation and robotics, industrial design, numerical modelling, finite element method, and cohesive zone models.
Abstract
Executive Summary This white paper explores the collective properties of 18 advanced Quantum Fractal alloys, designed for a wide range of high-performance applications across industries, from renewable energy to biomedicine. These alloys represent a leap in materials science, leveraging Quantum Fractal technology to achieve unprecedented efficiency, adaptability, and sustainability. The paper provides an overview of their combined properties, highlights interdisciplinary synergies, and outlines future research directions.
1. Introduction to Quantum Fractal Alloys The 18 Quantum Fractal alloys share a foundational innovation: the use of Quantum Fractal technology. This approach integrates self-similar fractal patterns at the nanoscale, optimizing electron pathways, thermal management, mechanical flexibility, and light absorption. These alloys collectively address several technological challenges, such as improving efficiency in energy conversion, enhancing thermal regulation, increasing bio-compatibility, and enabling advanced communication.
2. Combined Properties of the Quantum Fractal Alloys
2.1 Thermal and Cryogenic Properties
● High Thermal Conductivity and Stability: Alloys like ThermoFlow, CryoMorph, and HexaSil showcase superior thermal management capabilities, maintaining stability over a wide temperature range (-273°C to 1200°C). These alloys ensure optimized heat dissipation in electronic systems, efficient geothermal energy capture, and robust cryogenic performance in space exploration.
● Cryogenic Flexibility: Alloys such as CryoMorph retain structural integrity under extreme cold, minimizing brittleness through Quantum Fractal structures that evenly distribute thermal stress.
● Adaptive Thermal Response: NeutraPhase and ChronoTherm demonstrate rapid phase-shifting and time-based thermal adjustments, enabling real-time temperature control in smart environments.
2.2 Quantum and Electromagnetic Properties
● Enhanced Quantum Coherence: Nyrrite and QuantumLattice are critical for advanced quantum communication and computing. They offer high coherence times, stable quantum states, and low decoherence, key for reliable quantum networks and sensors.
● EM Signal Precision: Alloys like MetaWave and FerroPhase provide precise electromagnetic modulation and phase shifting, ensuring signal clarity in radar, antenna systems, and secure communication channels.
2.3 Light and Solar Efficiency
● Optimized Light Management: Alloys such as LuminoAlloy and QuantumReflect exhibit high luminescent and reflective efficiency, critical for displays, optical systems, and energy-efficient lighting.
● High Solar Absorption: SolariCloak and AetherCore are designed for solar applications, achieving up to 98% light absorption. These materials support sustainable energy solutions and adaptive building materials.
● Dynamic Light Adaptation: Alloys like ThermoGlass adjust light transmission and thermal properties in real-time, suitable for smart windows and green construction.
2.4 Mechanical and Structural Properties
● Exceptional Durability: Alloys such as VoltCore and GeoSync demonstrate resilience in harsh conditions, providing reliable performance in power grids, geothermal systems, and high-pressure environments.
● Flexible and Adaptive Structures: The Quantum Fractal approach ensures that alloys like BioNanoFract and BioSync maintain flexibility, even under mechanical stress, making them ideal for smart textiles, wearable technology, and adaptive implants. 2.5 Bio-Compatible and Eco-Friendly Properties
● Enhanced Bio-Integration: Medical alloys such as BioNanoFract and BioSync accelerate healing, reduce rejection rates, and support advanced implants and tissue engineering.
● Sustainability: HexaSil and AetherCore are designed for green manufacturing and renewable energy, with a focus on recyclability, low-carbon production, and high energy efficiency. These alloys are paving the way for a more sustainable future in industrial manufacturing.
3. Synergistic Applications Across Sectors
3.1 Renewable Energy and Green Construction
● Integrated Solar-Energy Systems: Combining alloys like SolariCloak and AetherCore enables adaptive solar panels that maximize energy efficiency while providing architectural flexibility. These materials can be utilized in adaptive façades, solar-integrated smart windows, and urban energy solutions.
● Sustainable Manufacturing: HexaSil leads the way in green manufacturing processes, while alloys like GeoSync support geothermal and industrial applications with eco-friendly properties and high durability. 3.2 Advanced Electronics and Quantum Computing
● Quantum Communication Networks: The combined properties of Nyrrite, QuantumLattice, and MetaWave allow for the development of high-fidelity quantum communication networks, supporting secure data transmission over extended distances with minimal interference.
● Thermal Management in High-Performance Computing: The combination of ThermoFlow and CryoMorph ensures stable thermal regulation in high-performance processors and GPUs, preventing overheating and improving computational efficiency. 3.3 Biomedicine and Biotechnology
● Smart Implants and Wearable Tech: BioNanoFract and BioSync alloys support the next generation of medical implants, tissue scaffolds, and adaptive wearable devices that respond to biological changes in real time.
● Precision Diagnostics: The sensitivity of alloys like FerroPhase and ChronoTherm enables the development of advanced diagnostic tools, capable of real-time monitoring and adaptive response to environmental changes. 3.4 Defense, Security, and Critical Infrastructure
● Secure Communication and EM Shielding: Alloys like MetaWave and QuantumReflect provide enhanced signal clarity and EM shielding for secure communication systems, radar, and defense infrastructure.
● Robust Infrastructure Materials: VoltCore and HexaSil deliver resilient materials that can withstand environmental stressors, ensuring the safety and reliability of critical infrastructure.
4. Future Directions for Quantum Fractal Alloys
4.1 Advanced Quantum Systems Future research will focus on refining alloys for topological quantum computing and error correction. This will involve improving coherence times, reducing noise, and integrating these materials into scalable quantum architectures. Alloys like Nyrrite and QuantumLattice will play central roles in creating a stable quantum internet.
4.2 Bio-Electronics and Smart Medical Devices The integration of Quantum Fractal alloys into bio-electronic devices is a promising field. Alloys such as BioNanoFract and BioSync are expected to evolve into smart implants capable of real-time diagnostics, remote health monitoring, and personalized medical interventions.
4.3 Adaptive and Flexible Materials Alloys with flexible and adaptive properties, like ThermoGlass and NeutraPhase, will be refined for applications in flexible electronics, wearable technology, and dynamic architecture. The goal is to create materials that seamlessly integrate with complex environments, offering intelligent adaptation to changing conditions.
4.4 Eco-Friendly Manufacturing and Sustainable Development Research into environmentally friendly alloys like HexaSil will focus on reducing the environmental impact of industrial processes while enhancing performance. This includes developing alloys that are fully recyclable, reducing carbon emissions, and optimizing thermal management in eco-friendly construction.
4.5 Energy Capture and Conversion The development of alloys like SolariCloak and AetherCore will expand into flexible solar films, lightweight solar panels, and off-grid energy solutions, driving the next wave of decentralized and sustainable energy systems.
5. Conclusion The 18 Quantum Fractal alloys represent a significant advancement in materials science, offering a wide range of applications across multiple industries. By leveraging the unique properties of Quantum Fractal technology, these alloys pave the way for a future where sustainability, adaptability, and efficiency are paramount. Continued research and interdisciplinary collaboration will be key to unlocking their full potential.
Biography
Chris McGinty is a visionary entrepreneur who has revolutionized theoretical physics and artificial intelligence. With an unquenchable thirst for understanding the universe, Chris embarked on a quest to develop a unified framework that could transform our knowledge of nature. Through extensive research, he introduced the MEQ, an extraordinary unified equation bridging quantum physics and field theory. As the founder of the L_TOE (Lagrangian Theory of Everything) framework, Chris assembled a brilliant team and harnessed cutting-edge AI technologies to explore the intricacies of the MEQ. This endeavor birthed Skywise.ai, an innovative platform uniting quantum-inspired algorithms, computational resources, and simulation tools to advance various domains. Chris's unwavering pursuit of knowledge and commitment to pushing scientific boundaries have cemented his status as a pioneering figure. His work lays the groundwork for quantum computing, artificial intelligence, and our comprehension of the universe's fundamental laws. Through interdisciplinary collaboration, Chris inspires future generations, leaving an enduring impact on scientific progress.
Abstract
An overview of advancements in electronic navigation is summarized. Electronic navigation performance on recreational marine systems is studied. Various electronic and automated navigation techniques of marine products are summarized for different style marine vehicles. Wide variety of boats such as Deep V high displacement boats to high speed boats. Stable heavy deep v boats vs unstable boats - like lightweight flat bottom boats need constant correction. Various sea state conditions such as wind, current and wave affect navigation quality. Various navigational aids such as Cartography, Sonar, Radar, Global Navigation Satellite Systems, Inertial Measurement Units, digital compass, Autopilot, Depth, Speed, Wind Sensor, Meteorological/Water conditions data, NMEA/Ethernet networking hub, AI Software and hardware the details of perfect Navigation System are explained. AIS can recognize target risks based on collision avoidance protocol adoption. Navigational aids' efficient usage for optimized routing (low emissions/fuel consumption), automated course correction, heading, anchor navigation are briefed. Marine vehicle steering, thrusting, trimming, vehicle pitch and roll control performance of different vehicles, marine power boat, fishing, cruising boats listed. Performance degradation due to rough seas, vibration and quality are reported. Solutions to reduce effects of rough seas, currents, rocks, sandbars, shallow and increasing safe navigation techniques are discussed.
Biography
Charles Bhaskaran completed his MBA from Michigan State University, MS in Mechanical Engineering from Western Michigan University, Michigan USA. He has been working as a Technical Specialist at Brunswick Corporation since 2018, Engineering Specialist at EATON Corporation, Ingersoll Rand Inc., ODL Inc. and Ferroglobe PLC corporations over the past 30 years. He has published more than 45 technical papers/ reports in reputed journals / corporate technical reports and is Managing Simulation, Prototyping, Lab testing and Proving Grounds Field Testing teams of the Brunswick Corporation Navico Group Simulation Development & Validation Center of Excellence at Lowell Technical Center in Lowell, Michigan, USA
Abstract
Atoms and Particles , New Quantum Relativistic Equations This paper dicusses the universe by using quantum -relativity. Many calculations for Particle rest-mass determination is performed studying the relationship between different particles and elementary particles . We also discuss a new Quantum Relativity gravitation theory for the universe. Different curvatures(space-time)(elliptic, flat and hyperbolic) with different light speeds and effects on particle mass is also discussed, General Variable Geometry Physics is Developed. We will here bring up The Exponential-Bi-Logarithmic Trancendental Transformation with rational and Trancendental numbers, as angles e.t.c,… and related algorithms,…
Biography
Tony Barrera is a certified autodidact math genius. He have published more than 42 Ordinary high rated scientific papers And up to several hundred publications ,computer simulations and animations In different subjects, scientific papers in mathematics , computer graphics, numerical analysis, astrophysics and Particle Atomic physics. Tony does research general together with prof Ewert Bengtsson, Prof Anders Hast and Physicist Bo Thelin and the crew of Barrera Science Lab. Tony Barrera have been working for the company AB Consonant with implementation of the Fast Fourier Transform, FFT , and as a computergrahics researcher at Cycore AB (Webbgraphics). Constructor of about 10 - 20 different Graphics Engines , Assembler ,Basic, Pascal and/or C++ computer languages. Started with mahematics and science at age 3, got the first Astronomy book (from mother Elisabeth Mercadal) at 9, the first Chemistry set at 10 , Chief (head) of Barrera Science Lab.
Abstract
The global demand for plastics continues to grow, leading to serious environmental issues and health concerns, while the need for increased plastic production further adds to the problem. Conventional methods for producing and managing plastic waste, such as recycling and disposal, fall short in providing sustainable solutions. In this context, microalgae are emerging as a promising alternative for developing sustainable materials. Microalgae not only have the capability to biodegrade plastics by breaking down plastic polymers through enzymatic processes, but they also serve as a renewable resource for creating bioplastics. This review focuses on the potential of microalgae in the biodegradation of plastics and the production of algae-based biodegradable bioplastics. Notably, microalgae-derived bioplastics offer properties like fossil fuel-based plastics, but with enhanced biodegradability. Key techniques, including bioplastic synthesis and material blending, are examined to assess their viability. This study aims to highlight the promise of microalgae as a sustainable solution, offering insights into innovative approaches for plastic waste management and future applications in the bioplastics industry. This review also evaluates the economic feasibility, scalability, and sustainability of microalgae-based bioplastics, while exploring emerging innovations and market trends in this field. The aim is to provide a thorough overview of the role of microalgae in bioplastic production, covering everything from optimizing production methods to addressing commercial challenges. Ultimately, this review contributes to understanding how microalgae can help create a more sustainable future for the plastics industry.
Biography
Amarnath Krishnamoorthy is doing his PhD in biomass conversion to energy at the School of Computing, Engineering & Physical Sciences, University of the West of Scotland (United Kingdom). His research explores the implementation of pre-treatment methods in microalgal species for cell disruption, and his research added value to the third generation of biofuels. His dissertation deploys recent studies of microalgal pre-treatment in biodiesel production and literature and leads questions about the upcoming phases of dewatering approaches and research exploration
Abstract
Advanced materials based heterogeneous catalysis involving photochemical and photoelectrochemical water splitting is an ultimate source of hydrogen generation as renewable green energy for tackling the ongoing fuel crisis. Carbon based materials are ideal for overall water splitting as a result of the excellent alignment of its band edges with water redox potentials. However, a single catalyst with a limited number of active sites does not exhibit significant photo/electrocatalytic activity for hydrogen production. Therefore, we have developed the semiconductor heterostructures of carbon materials with oxides, sulphides, selenides, other TMCs/TMDs NPs and QDs as the highly efficient nanocatalysts for enhanced hydrogen evolution reactions. The monophasic heterostructures have been designed in different weight ratios with fairly uniform distribution of nearly spherical particles and high specific surface area which creates an interfacial charge transfer between two semiconductors. As prepared heterostructures showed significant hydrogen evolution which is evident by observing high apparent quantum yield, low onset potential, lower overpotential and high electrochemical active surface area that will be presented in detail.
Biography
Prof. Tokeer Ahmad graduated from IIT Roorkee and Ph.D. from IIT Delhi. Presently, he is a full Professor at the Department of Chemistry, Jamia Millia Islamia, New Delhi since 2019. Prof. Ahmad has supervised 16 PhD’s, 84 postgraduates, 10 projects, and published 209 research papers, one patent, and three books with research citations of 8585, h-index of 55, and i10-index of 167. Prof. Ahmad is an active reviewer of 188 journals, delivered 195 Invited talks, evaluated 67 external doctoral theses, and presented 133 conference papers. Prof. Ahmad is the recipient of CRSI Bronze Medal, MRSI Medal, SMC Bronze Medal, ISCAS Medal, Inspired Teacher’s President of India Award, DST-DFG award, Distinguished Scientist Award, Maulana Abul Kalam Azad Excellence Award of Education, Teacher’s Excellence Award, Elected Member of National Academy of Sciences India and Fellow of Royal Society of Chemistry (FRSC), UK. Prof. Ahmad has been figured in World's Top 2% of Scientists for consecutive five years since 2020 in both coveted lists including career-long by Stanford University, USA.
Abstract
Electric load forecasting is a technique supporting smart grid objectives. It refers to predicting the electricity demand at aggregated levels which is mandatory for the smart grid's proper functioning and balancing electricity generation and power consumption at all times. This paper proposes multiple output sparse Gaussian processes with multiple kernel learning for hourly day-ahead short-term electric load forecasting using load, dew point, and temperature values. The mean absolute percentage error metric is used to evaluate and compare the performance of the proposed multiple output sparse Gaussian processes with multiple kernel learning and the persistence method in three scenarios (using load and dew point values, using load and temperature values, and finally, using load, dew point, and temperature values from previous days). The results showed that the proposed method achieved much lower MAPE values than the persistence method.
Biography
Alireza Ghasempour has been a faculty member in the Information and Communications Technology department at the University of Applied Science and Technology. His areas of interest include smart grids, the Internet of Things, machine learning and deep learning techniques, optimization methods, smart cities, and wireless communications and networks. He has published several papers in these areas in peer-reviewed journals and international conferences.
Abstract
In an era marked by rapid technological advancements and increasingly complex global challenges, organisations must adapt their strategies to stay competitive and innovative. ATMOS-Global-Quantumᴬᴵ presents a pioneering framework designed to meet these dynamic needs by integrating the power of quantum computing with the immersive capabilities of spatial computing.
This cutting-edge approach empowers organisations to visualise, simulate, and optimise their strategies in real-time, enabling them to anticipate and respond to emerging trends and risks with unprecedented accuracy. By harnessing the synergistic potential of quantum and spatial computing, ATMOS-Global-Quantumᴬᴵ not only reduces strategic risks but also enhances decision-making processes, paving the way for groundbreaking innovations that can redefine industries.
In this presentation, we will explore how this framework transforms strategic planning and execution, providing organisations with the tools to thrive in an increasingly complex and fast-paced world.
Biography
Dr Orestis D. Valianatos is the Global President and CEO of ATMOS Global Pty Ltd (ATMOS Global ™), a highly accredited and accomplished professional company director, an astute investor in the capital markets, an established innovator, a role model, a visionary thinker with a diverse portfolio of formal qualifications (BSc, MSc, PhD in Atmospheric Physics, Climate & Sustainability, Master of Business Administration, Professional Doctorate in International Business and Sustainability, Corporate Governance training as a Professional Board Director, and soon a Diploma of Finance), experience, unique insight and influential global perspective across multiple domains including artificial intellignce, leadership, strategy and innovation, sustainability, ESG, climate-tech, thematic and sustainable investing. Entrepreneur and agent of change, he has authored more than 50 ground-breaking international research papers as a subject matter expert working in partnership with senior personnel from government departments, universities and major private clients from the mining, manufacturing and energy & utilities sectors.
Abstract
This paper presents a comprehensive numerical computation of the natural convection of magnetised permeable nano-liquids contained within a composite wavy cabinet. The domain of interest includes two parts. One portion is filled with a nanofluid fluid saturated with porous matrix, whereas the other region is filled solely with the nanofluid. The finite element approach is utilised to solve the coupled highly nonlinear partial differential equations numerically. A selected set of graphical results illustrating the effects of frequency, amplitude, Rayleigh number, Hartmann number, Darcy number and different porous materials on the streamlines and isotherms are presented. The variations in these parameters enable us to examine the impact on Nusselt number, flow patterns, and thermal performance. The addition of a response surface technique based on sensitivity analysis is a major innovation in this study, and the findings reveal intricate interactions between magnetohydrodynamics, Joule heating, and porous medium effects, providing valuable insights for optimising thermal management and energy efficiency in advanced MHD systems.
Biography
Prof. J.C. Umavathi completed her Post Doctral from the Department of Engineering, University of Sannio, Piazza Roma 21, 82100 Benevento, Italy. She is working as Professor in the Department of mathematics, Gulbarga University since 1993. She has published more than 215 research articles in reputed international journals. She is a recipient of Kalpana Chawla Young Scientist award, Sir J.C. Bose award and Erasmus Mundus Fellowship
Abstract
The efforts are to employ Bose-Einstein condensation (BEC) in dilute gases fundamental quantum-mechanical processes, for the detoxification of Green House Gases and other toxins to control Global Warming vis-à-vis Climate change, using Physiochemical processes and generating Bose-Einstein Condensate of Cobalt (Co), and its three forms of Cobalt Oxide viz. CoOI, CoOII, CoOI-II, and Co2O3. All these Oxides of Cobalt differ in their physicochemical characteristics and atomic structures (3d6 & 3d7 ), and hence it’s worth to study the correlation pf physiochemical characteristics of Cobalt Oxides with Catalytic activity and develop Magnetic Refrigeration Technology. Next, to develop “Hybrid ‘Q-CAT’-System” in the proposed four PairedModules, pairing with “Comfortable Normal Chill” &” Big Chill” and one Coupled Module of Comfortable normal Chill ‘and Big Chill’ i.e. ‘Pentagonal Module’; with a scope of improvement to Hexagonal and Heptagonal- Q-CAT Modules by using ‘Triple Cooling Technology’(TCT) comprising Conventional, Quantum Computing Cooling, and ‘Magnetic Refrigeration Technology’(VGMRT), developed by Dr. Virendra Goswami in past. Then, the proposed modules would be developed to convert toxic gases e.g. Green House Gases (CH4, NOX,) and other toxins into non-toxic entity using Physicochemical process to control Environmental Pollution and Global Warming vis-à-vis Climate Change by using Catalytic Oxides of the first row of transition metals. Next, Catalytic Toxic Absorbers would be developed to absorb toxic gases e.g. Green House Gases (CH4, NOX,) and other toxins using Chemisorption, Surface Area, Magnetic Susceptibility, Differential Thermal Analysis, and Catalytic activity, employed by the author in the past.
Biography
Dr. Virendra Goswami, Ph.D. Indian Institute of Technology, Kharagpur, MS from the University of Wisconsin, Post Doctorate Fellow at the University of Illinois, Chicago, USA. ‘Visiting Scientist’: NASA, WMO, NCAR, ICAO, (UNIDO- ICTP-ITALY.). Founder President’ of ‘Environment and Peace Foundation’ & Wing Commander (Retd.) with more than 550 hours of flying as a supernumerary Aircrew. Recently, he has been awarded ‘Distinguished Alumnus Awardee-2023’, IIT Kharagpur. He worked at the Space Science Engineering Centre (NASA/NOAA), at the University of Wisconsin. Former Vice Chancellor: Sangam & Sunrise Universities. I have been Director of Engineering Institutes, and a Special Invitee by the WMO-UN. Geneva in 2001 & 2016. He has been a Ph. D & M. Tech Examiner at Centre of Energy Studies, IIT Delhi since 2001. More than 44 years of Teaching, Research, and Governance experience at Home and Abroad. Lately, appointed Reviewer of the Royal Meteorological Society (R. Met. S), Atmospheric Science Letters. Presented Research Papers (more than 260) in the fields of Chemical Technology, Atmospheric, Space, Health Sciences. (AI) and Remote sensing in control of Global Warming, Climate Change, Green Energy, and Quality Higher Education at International /National Conferences held in India, the USA, the UK Latin America, South Africa, Canada, and Europe (32 countries) besides, headed various delegations at the Natl. & International Levels. Special Invitee on Apr’15 at NSF, NPW: NCAR USA. Invited Speaker to the Coupled Data Assimilation Workshop, sponsored by Météo-France, WMO, and US-CLIVAR, 2016 & Invited Speaker at Lomonosov Moscow State Univ, Sep17, Sep’20. Also, Chaired the session and Guest Speaker at Int.Nat. WEBINARS: AGU-Oceanography-20-USA; SOLAS- PICES, OCT’20, Euro-Marine 2021, CG13 Climate Change, Canada, Apr’21, Hi-Tech, Météo-France Apr21, CTBT(SnT20), WEB-EPF- FINLAND,02Sep’21, WAC-2023, Tokyo & WAC-2024, France.
Abstract
Will update soon.
Biography
Dr. Abhishek Mathur is presently working as DGM (Incharge- Technical and R&D) in Prathista Industries Ltd., Telangana. He is Ph.D. in Biochemistry from National Institute of Malaria Research (ICMR), BHEL, Haridwar, Uttarakhand and Awarded from Jiwaji University, Gwalior (M.P), India. He has total experience of almost 18.5 years in the field of natural molecules and phytochemicals related to their food, pharmacological and agricultural activities. Life Member, Elsevier and Nature (Journals). Life Member, European Federation of Biotechnology (EFB), Europe. Life Member, ISEKI- Food Association, Austria. Life Member of Indian Science Congress, India. Life Member, Asian PGPR Society, USA. Fellow Member, Association of Plant Science Researchers (APSR), Dehradun. Fellow Member, Society for Plant Research (SPR), Vegetos, Springer. He strongly believes that, “Natural molecules are the future for tomorrow”, thus his scientific work emphasizes the importance of novel molecules, microbes, enzymes, and secondary metabolites for human and agricultural significance.
Abstract
Will update soon
Biography
Prof. Dr. Sailesh Iyer has a Ph.D. (In computer Science) and currently serving as a Professor and Dean with Rai University, Ahmedabad. He has more than 22 years of experience in Academics, Industry, and Corporate Training out of which 18 years are in core Academics. He has Patents to his credit and is involved as an Editor for various book projects with IGI Global (USA), Taylor and Francis (UK) and Bentham Science (UAE). A hardcore Academician and Administrator, he has excelled in Corporate Training, Delivered Expert Talk in various AICTE sponsored STTPs, ATAL FDPs, Reputed Universities, Government organized Workshops, Orientation, and Refresher Courses organized by HRDC, Gujarat University. Research Contributions include reputed Publications, Track Chair at ICDLAIR 2020 (Springer Italy), icSoftComp 2020, IEMIS 2020 (Springer), ICRITO 2020 (IEEE), ARISE-2021, FTSE-2021, and TPC members of various reputed International and National Conferences, Reviewer of International Journals like Multimedia Tools and Applications (Springer), Journal of Computer Science (Scopus Indexed), International Journal of Big Data Analytics in Healthcare (IGI Global), Journal of Renewable Energy and Environment, and Editor in various Journals. Expert Talk on Research-based topics in various Universities and Conferences in addition to guiding Research Scholars as supervisors. He has also been invited as a Judge for various events, Examiner for Reputed Universities, is a Computer Society of India Lifetime Member and also serving as Managing Committee (MC) Member, CSI Ahmedabad Chapter from 2018-2020.
Abstract
In the fast-paced digital landscape, strategic decision-makers face the daunting task of navigating a sea of cybersecurity risks. “Decoding KRIs” is a pivotal presentation that sheds light on the essence of Key Risk Indicators (KRIs) within cybersecurity frameworks. This session aims to dispel prevalent myths surrounding Governance, Risk Management, and Compliance (GRC) processes, providing clarity and actionable insights.
Key Points:
Bureaucracy Overload: We’ll debunk the myth that GRC is a bureaucratic burden, showcasing how a well-structured approach can enhance operational efficiency and ensure adherence to regulatory standards.
Lack of Tangible Benefits: The presentation will highlight GRC's long-term advantages, emphasizing its critical role in mitigating risks, maintaining legal compliance, and fostering organizational sustainability.
Complexity and Jargon: Attendees will learn strategies to demystify GRC terminology, making communication more accessible and outcomes more actionable for all stakeholders.
Perceived Inefficiency: We will explore innovative methods to refine GRC workflows, leveraging cutting-edge technology to boost efficiency and effectiveness.
Join us as we unravel the complexities of KRIs, equipping you with the knowledge to fortify your strategic decision-making process with comprehensive cybersecurity insights.
Biography
Nia Luckey is a cybersecurity expert and innovator who works as a cloud services engineer at a leading global consulting firm. She has over 15 years of experience in the IT industry, specializing in mergers and acquisitions, cloud program management, and cybersecurity governance, risk, and compliance. She is also a passionate advocate for diversity and inclusion in cybersecurity, and she has established two nonprofit chapters in North Carolina to support and mentor aspiring professionals in the field. She is a frequent speaker and contributor at various industry events and publications, sharing her insights and best practices on how to succeed in the ever-changing cyber landscape. When she is not working or volunteering, she enjoys traveling, reading, and spending time with her family.
Abstract
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Biography
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Abstract
To increase the biosphere food and energy production, we developed a transcendental (not a standard direct imitation of nature) Biogeosystem Technique (BGT*) theoretical and technological framework to refine the technology imbedding to ecosphere. The BGT* provides a higher rate waste recycling and an improved soil productivity. The BGT* methodology includes:
Applied once, the 20–50 cm layer intra-soil milling provides soil stable fine multilevel geophysical architecture for a period up to 40 years improving rhizosphere soil biome, ensuring an optimal plant ontogenesis and providing a high rate long-term soil fertility.
The intra-soil pulse sequential-discrete watering ensures a matrix potential of the soil solution in the range circa −0.2 MPa to −0.4 MPa and a plant stomatal apparatus operates in a regulation mode. A water consumption of plants at this rather low matrix potential is circa 5 to 20 times less compared to the standard irrigation. Improved water and nutrient supply provides an optimal ontogenesis and a high productivity of plants.
The current outdated technologies of C irreversible sequestration fail in environmentally safe waste recycling, energy renewal, and safe ecosphere expanded reproduction. We developed a reversible sequestration of atmosphere C, simultaneously expanding a C soil and biological active phase.
The BGT* includes the C-free gasification byproduct intra-soil recycling. This provides a safety of environment and a higher soil biological productivity of ecosphere ensuring a higher rate atmosphere CO2 disposing by plants and C reversible sequestration in the additional biomass and soil organic matter mitigating the climate system.
Biography
Professor Dr Sc (Biol) Valery P. Kalinitchenko. Institute of Fertility of Soils of South Russia, Director, Persianovka, Russia. All-Russian Phytopathology Research Institute, Leading Researcher, Big Vyazemy, Russia. Moscow State University, Soil Science Faculty, Doctoral Degree in 1991. Don State Agrarian University, Persianovka, Russia, in 1976-2012, Agriculture and Land Reclamation Department Chair, in 1992-2012. The area of interest: soil and water saving, waste recycling, sustainability, soil productivity and health, Biogeosystem Technique methodology. Eight scientific journals editorial board member. 700 monographs, journal and conference papers and 50 patents. Nine scientific societies ACS, EGU and other member.
Abstract
In today’s rapidly digitalizing world, cybersecurity has become a pivotal factor in ensuring the stability, trust, and resilience of digital economies. As businesses, governments, and individuals increasingly rely on digital platforms for financial transactions, data storage, and daily operations, the need for robust cybersecurity measures has become more urgent than ever. This article explores the impact of cybersecurity on digital economic growth, with a particular focus on data protection and the strategies required to safeguard sensitive information. By assessing cybersecurity challenges and solutions in diverse sectors, we examine how enhanced data protection measures contribute to a sustainable digital economy and promote trust among stakeholders.
Biography
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