Showing posts with label Energy storage systems. Show all posts
Showing posts with label Energy storage systems. Show all posts

Saturday, 30 August 2025

The Cohesive Forces in Explaining Material Phenomena | Chapter 7 | Chemical and Materials Sciences: Developments and Innovations Vol. 9

 

The study of cohesive forces, which fundamentally govern the interaction and integrity of materials, has led to an improved understanding of macroscopic and microscopic phenomena. This manuscript explores cohesive forces as a unifying principle in materials, focusing on their role in organic and inorganic systems. By studying carbon-based materials, it demonstrates how cohesive forces influence structural stability, conductivity and material behavior under diverse conditions. Key findings include the pivotal role of carbon in enhancing material properties and its transformative applications in energy storage systems, graphene-based technologies and protein stability. These insights drive innovations in nanotechnology, biotechnology and sustainable materials.

 

Author(s) Details

 

Rajasekaran Ekambaram
V.S.B. Engineering College, Karudayampalayam, Karur - 639111, TN, India.

 

Please see the book here:- https://doi.org/10.9734/bpi/cmsdi/v9/4132

Friday, 26 May 2023

Problems of Hydrogen Energy and a Promising Direction for their Solution | Chapter 7 | Fundamental Research and Application of Physical Science Vol. 5

 In this paper, the electrochemical system of hydrogen accumulation in the electrodes of coat with metallic material-cadmium batteries, depending on their service life, has happened investigated. It has happened experimentally proven that hydrogen increases in batteries electrodes in large quantities and reaches allure maximum capacity within about five age. It has been displayed that metal hydrides, that are hydrogen compounds, accumulate in the metal-earthenware matrices of sintered group of chemical elements-nickel electrodes. The nickel cast has a gravimetric capacity of 20.3 burden percent and a volumetric capacity of 406 kg m-3 accompanying a relative experimental wrong of 4%. , it should be famous that none of the hydrogen storage schemes that exist contemporary meet the requirements of the US DOE in all tests. It is the lack of reliable hydrogen depository systems that can compete with the fuel tanks of buses containing fuel that is the main barrier to the widespread use of hydrogen energy. The calculated gravimetric capacities for hardware-ceramic matrices pass previous calculations for reversible hydrogen storage orders as well as the US Department of Energy's (DOE) necessities for onboard hydrogen storage plans by almost four times. It is decided that using the electrochemical procedure of hydrogen accumulation and the thermal runaway process, individual can not only achieve all the tests established by the US DOE for ore hydrides, but also considerably exceed them.

Author(s) Details:

Nikolay E. Galushkin,
Laboratory of Electrochemical and Hydrogen Energy, Don State Technical University, Shakhty-346500, Russia.

Nataliya N. Yazvinskaya,
Laboratory of Electrochemical and Hydrogen Energy, Don State Technical University, Shakhty-346500, Russia.

Dmitriy N. Galushkin,
Laboratory of Electrochemical and Hydrogen Energy, Don State Technical University, Shakhty-346500, Russia.

Please see the link here: https://stm.bookpi.org/FRAPS-V5/article/view/10650