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Books on the topic 'Electrochemical production'

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Author: Grafiati
Published: 30 May 2022
Last updated: 20 February 2023

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1

1933-, Wendt Hartmut, ed. Electrochemical hydrogen technologies: Electrochemical production and combustion of hydrogen. Amsterdam: Elsevier, 1990.

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2

Scott, Keith, ed. Electrochemical Methods for Hydrogen Production. Cambridge: Royal Society of Chemistry, 2019. http://dx.doi.org/10.1039/9781788016049.

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3

Djokić, Stojan S., ed. Electrochemical Production of Metal Powders. Boston, MA: Springer US, 2012. http://dx.doi.org/10.1007/978-1-4614-2380-5.

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4

Leite, Edson Roberto, ed. Nanostructured Materials for Electrochemical Energy Production and Storage. Boston, MA: Springer US, 2009. http://dx.doi.org/10.1007/978-0-387-49323-7.

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5

Suzuki, Hiroyuki. Production and electrochemical behaviour of Ni-Co-Mo-B amorphous alloys for alkaline water electrolysis. Ottawa: National Library of Canada = Bibliothèque nationale du Canada, 1995.

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6

Production, National Research Council (U S. ). Committee on Electrochemical Aspects of Energy Conservation and. New horizons in electrochemical science and technology: Report of the Committee on Electrochemical Aspects of Energy Conservation and Production, National Materials Advisory Board, Commission on Engineering and Technical Systems, National Research Council. Washington, D.C: National Academy Press, 1986.

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7

Forum on New Materials (5th 2010 Montecatini Terme, Italy). New materials I: Advanced fossil fuel energy technologies, hydrogen production and storage, fuel cells, electrochemical energy storage systems : proceedings of the 5th Forum on New Materials, part of CIMTEC 2010, 12th International Ceramics Congress and 5th Forum on New Materials, Montecatini Terme, Italy, June 13-18, 2010. Stafa-Zurich, Switzerland: Trans Tech Publications on behalf of Techna Group, Faenza, Italy, 2011.

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8

Hydrogen Electrochemical Production. Elsevier, 2018. http://dx.doi.org/10.1016/c2016-0-01050-1.

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9

Pollet, Bruno G., Christophe Coutanceau, Thomas Audichon, and Steve Baranton. Hydrogen Electrochemical Production. Elsevier Science & Technology Books, 2017.

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10

Pollet, Bruno G., Christophe Coutanceau, Stève Baranton, and Thomas Audichon. Hydrogen Electrochemical Production. Elsevier Science & Technology Books, 2017.

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11

Wendt, Hartmut. Electrochemical Hydrogen Technologies: Electrochemical Production and Combustion of Hydrogen. Elsevier Publishing Company, 1990.

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12

Electrochemical Methods for Hydrogen Production. Royal Society of Chemistry, The, 2019.

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13

Electrochemical Production of Metal Powders. Springer London, Limited, 2012.

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14

Djokić, Stojan S. Electrochemical Production of Metal Powders. Springer, 2016.

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15

Electrochemical Production Of Metal Powders. Springer, 2012.

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16

Leite, Edson R. Colloidal Chemistry for Electrochemical Energy Production and Storage. Springer, 2021.

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17

Leite, Edson Roberto. Nanostructured Materials for Electrochemical Energy Production and Storage. Springer, 2009.

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18

Leite, Edson Roberto. Nanostructured Materials for Electrochemical Energy Production and Storage. Springer, 2012.

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19

Lamy, Claude, Christophe Coutanceau, and Steve Baranton. Production of Clean Hydrogen by Electrochemical Reforming of Oxygenated Organic Compounds. Elsevier Science & Technology, 2019.

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20

Lamy, Claude, Christophe Coutanceau, and Steve Baranton. Production of Clean Hydrogen by Electrochemical Reforming of Oxygenated Organic Compounds. Elsevier Science & Technology Books, 2019.

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21

Laue, Vincent. Electrochemical Modeling in the Context of Production of Lithium-Based Batteries. Logos Verlag Berlin, 2021.

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22

Production of Clean Hydrogen by Electrochemical Reforming of Oxygenated Organic Compounds. Elsevier, 2020. http://dx.doi.org/10.1016/c2019-0-03206-2.

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23

National Aeronautics and Space Administration (NASA) Staff. Issues on the Production and Electrochemical Separation of Oxygen from Carbon Dioxide. Independently Published, 2018.

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24

Garche, Jürgen, and Tom Smolinka. Electrochemical Power Sources : Fundamentals, Systems, and Applications: Hydrogen Production by Water Electrolysis. Elsevier, 2021.

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25

Electrochemical Power Sources, Fundamentals, Systems, and Applications: Hydrogen Production by Water Electrolysis. Elsevier, 2021.

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26

Electrochemical Impedance Spectroscopy In Pem Fuel Cells Fundamentals And Applications. Springer, 2009.

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27

C, Jeffery T., and Electrochemical Society Meeting, eds. Proceedings of the symposia on chlor-alkali and chlorate production and new mathematical and computational methods in electrochemical engineering. Pennington, NJ: Electrochemical Society, 1993.

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28

United States. National Aeronautics and Space Administration., ed. Electrolysis Performance Improvement Concept Study (EPICS) flight experiment-reflight: Final report : prepared under contract NAS9-18568 ... Cleveland, OH: Life Systems, Inc., 1997.

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29

United States. National Aeronautics and Space Administration., ed. Electrolysis Performance Improvement Concept Study (EPICS) flight experiment-reflight: Final report : prepared under contract NAS9-18568 ... Cleveland, OH: Life Systems, Inc., 1997.

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30

Naiqian, Feng. Multifunctional Concrete Technology. Materials Research Forum LLC, 2022. http://dx.doi.org/10.21741/9781644901991.

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The book reviews production and applications of high- and ultrahigh strength multifunctional concrete. The use of various coarse and fine aggregates are covered, as well as ultrafine powders, new superplasticizers, anti-rust agents for steel bars and electrochemical protection technology.
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31

Barnes, Nicholas Mark. Neurochemical assesments of the functional state of cerebal 5-hydroxytyrptamine: Application of high performance liquid chromatogrpahy with electrochemical detection and radioligand binding techniques....during damage tothe raphe system or during the production and prevention of emsis. Bradford, 1988.

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32

Ho, Kwok M. Kidney and acid–base physiology in anaesthetic practice. Edited by Jonathan G. Hardman. Oxford University Press, 2017. http://dx.doi.org/10.1093/med/9780199642045.003.0005.

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Anatomically the kidney consists of the cortex, medulla, and renal pelvis. The kidneys have approximately 2 million nephrons and receive 20% of the resting cardiac output making the kidneys the richest blood flow per gram of tissue in the body. A high blood and plasma flow to the kidneys is essential for the generation of a large amount of glomerular filtrate, up to 125 ml min−1, to regulate the fluid and electrolyte balance of the body. The kidneys also have many other important physiological functions, including excretion of metabolic wastes or toxins, regulation of blood volume and pressure, and also production and metabolism of many hormones. Although plasma creatinine concentration has been frequently used to estimate glomerular filtration rate by the Modification of Diet in Renal Disease (MDRD) equation in stable chronic kidney diseases, the MDRD equation has limitations and does not reflect glomerular filtration rate accurately in healthy individuals or patients with acute kidney injury. An optimal acid–base environment is essential for many body functions, including haemoglobin–oxygen dissociation, transcellular shift of electrolytes, membrane excitability, function of many enzymes, and energy production. Based on the concepts of electrochemical neutrality, law of conservation of mass, and law of mass action, according to Stewart’s approach, hydrogen ion concentration is determined by three independent variables: (1) carbon dioxide tension, (2) total concentrations of weak acids such as albumin and phosphate, and (3) strong ion difference, also known as SID. It is important to understand that the main advantage of Stewart over the bicarbonate-centred approach is in the interpretation of metabolic acidosis.
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33

Salinas-Rodríguez, Sergio G., Juan Arévalo, Juan Manuel Ortiz, Eduard Borràs-Camps, Victor Monsalvo-Garcia, Maria D. Kennedy, and Abraham Esteve-Núñez, eds. Microbial Desalination Cells for Low Energy Drinking Water. IWA Publishing, 2021. http://dx.doi.org/10.2166/9781789062120.

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The world's largest demonstrator of a revolutionary energy system in desalination for drinking water production is in operation. MIDES uses Microbial Desalination Cells (MDC) in a pre-treatment step for reverse osmosis (RO), for simultaneous saline stream desalination and wastewater treatment. MDCs are based on bio-electro-chemical technology, in which biological wastewater treatment can be coupled to the desalination of a saline stream using ion exchange membranes without external energy input. MDCs simultaneously treat wastewater and perform desalination using the energy contained in the wastewater. In fact, an MDC can produce around 1.8 kWh of bioelectricity from the energy contained in 1 m3 of wastewater. Compared to traditional RO, more than 3 kWh/m3 of electrical energy is saved. With this novel technology, two low-quality water streams (saline stream, wastewater) are transformed into two high-quality streams (desalinated water, treated wastewater) suitable for further uses. An exhaustive scaling-up process was carried out in which all MIDES partners worked together on nanostructured electrodes, antifouling membranes, electrochemical reactor design and optimization, life cycle assessment, microbial electrochemistry and physiology expertise, and process engineering and control. The roadmap of the lab-MDC upscaling goes through the assembly of a pre-pilot MDC, towards the development of the demonstrator of the MDC technology (patented). Nominal desalination rate between 4-11 Lm-2h-1 is reached with a current efficiency of 40 %. After the scalability success, two MDC pilot plants were designed and constructed consisting of one stack of 15 MDC pilot units with a 0.4 m2 electrode area per unit. This book presents the information generated throughout the EU funded MIDES project and includes the latest developments related to desalination of sea water and brackish water by applying microbial desalination cells. ISBN: 9781789062113 (Paperback) ISBN: 9781789062120 (eBook)
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