Re-examination of Energy Conservation Principle in Charged Capacitors and the Reported Anomalous Energy Devices: A New Perspective | Chapter 10 | Current Research Progress in Physical Science Vol. 4

Energy conservation is one of the most fundamental and well-established principles of physics. Repeated testing has provided evidence that the thermal energy conversion from heat energy to kinetic energy is complete as long as there is no heat loss. E. Noether extended the energy conservation principle to the quantum field theoretical domain in empty space by relating the time-translation invariance of the universe with energy conservation. While this is the case in an open empty space, it seems that the local space enclosed by conducting metallic plates has an unexpected property, suggesting that the energy conservation principle may not necessarily apply to localized bound systems of capacitors in electrodynamics. This point of view was raised by noting that the spherical capacitor has calculable electrostatic self-potential energy in both the inner and outer shells, which is not considered in the conventional consideration of the total energy stored in the capacitors. It seems that the concept of moving charges one by one into the capacitor plates has helped bypass the necessary steps to account for the additional repulsive self-potential energy that accumulates simultaneously in both capacitor plates in the process of charging the capacitor. While electrons are free to move around inside the metal, they are not free to escape the metal surface because of the work function potential. This fact raises the possibility that electrons can accumulate repulsive potential energy among themselves that was not previously considered possible to be included as a meaningful form of energy.

 

Also, contrary to thermodynamics where the fundamental basis of local energy conservation principle in physics was originated from, magnetic field which carries energy does not obey the adiabaticity as a precondition for local energy conservation because magnetic field cannot be blocked by any material. This indicates that the local energy in charged capacitors in electrodynamics may not need to obey the energy conservation principle established by thermodynamics in the first place. We present itemized details of the repulsive potential energy stored in the capacitors and discuss its physical reality in relation to the anomalous energy devices reported in the past.

 

Author (s) Details

Eue Jin Jeong
Tachyonics Institute of Technology Austin, TX-78741, USA.

 

Please see the book here:- https://doi.org/10.9734/bpi/crpps/v4/2719

Energy Efficiency and Conservation Practices for Sustainable Development| Chapter 4 | Current Overview on Science and Technology Research Vol. 10

 The way to an optimum energy resolution for sustainable development is through strength efficiency and strength conservation (EEAEC). To attain and claim optimal energy obtainment and use in any home or organization, EE and EC agree. They contribute to reducing strength expenditures, waste, and negative tangible effects without prejudicing the caliber of the work presented. Energy efficiency (EE) refers to the ability to preserve energy while maintaining the alike level of service. It is the ability to use new technology and supplies to perform the same tasks accompanying less energy. Energy conservation (EC) is attained, on the other hand, when you adopt better habits of doing things while utilizing the same amount of applicable energy to produce more valuable work. EC minimizes the need for fuel derived from prehistoric organisms sources. The spin-offs keep result in improved material quality, national and private security, and cost funds, putting EC at the top of the tenable energy portfolio ranking. The purpose of this article search out investigate and demonstrate the mechanics distinctions middle from two points EE and EC, allowing us to create an strength audit checklist applicable to dwellings, commercial, and industrial requests.

Author(s) Details:

O. U. Olughu,
Industrial Research and Development Engineer, Olughu Technologies Engineers, Aba, Nigeria.

Please see the link here: https://stm.bookpi.org/COSTR-V10/article/view/8904

Analyzing Energy-Saving Measures and Key Metrics for Enhancing Cooling Performance in Atrium Buildings | Chapter 10 | New Approaches in Engineering Research Vol. 8

 Atriums are increasingly being used by professional designers and owners to give a number of benefits, such as sufficient sunlight, circulation areas, and surfaces for gardening applications. The space conditioning of atriums, which have a relatively big volume when compared to standard commercial and institutional spaces, is one of the most critical challenges with this popular architectural feature. Unless proper design strategies are used, adequately conditioned atriums could result in excessive energy use. It can be difficult to attain both high thermal comfort and low energy consumption at the same time. The potential for energy savings from precise temperature management indoors reinforces the case for investigating the applicability of the universal comfort temperatures advocated by international comfort standards. The goal of this article is to assess energy saving strategies that have aided in the achievement of architectural design characteristics while also supporting thermal environment conditions. A systematic analysis of elements for energy saving identified design aspects that have influenced the development of a comfortable atmosphere through a literature review. Environmental considerations in the installation of architectural characteristics in atriums have been characterised as daylighting, acoustics, natural ventilation, and temperature regulation. The results would help architects and designers choose the most energy-efficient atrium building type, as well as optimise the controlled atmosphere during the initial design stage.

Author (s) Details

Shashi Saxena
School of Architecture, LNCT University, Bhopal (M.P), India.

Anupama Sharma
Department of Architecture and Planning, Maulana Azad National Institute of Technology, Bhopal (M.P), India.

View Book :- https://stm.bookpi.org/NAER-V8/article/view/2275