LEADER 00000cam a2200565 i 4500 
001    on1140353704 
003    OCoLC 
005    20211008041809.0 
006    m     o  d         
007    cr ||||||||||| 
008    191206s2020    nyua    ob    001 0 eng   
010      2019056819 
020    1536168319|qelectronic book 
020    9781536168310|q(electronic book) 
020    |z9781536168273|qpaperback 
035    (OCoLC)1140353704 
040    DLC|beng|erda|cDLC|dOCLCF|dOCLCO|dOCLCQ|dYDX|dN$T 
042    pcc 
049    RIDW 
050 04 TJ260|b.I5725 2020 
082 00 621.402/8|223 
090    TJ260|b.I5725 2020 
245 00 Intelligent thermal energy systems :|ban overview /|cCheng
       Siong Chin, editor. 
264  1 New York :|bNova Science Publishers,|c[2020] 
300    1 online resource (xi, 85 pages) :|billustrations (some 
       color). 
336    text|btxt|2rdacontent 
337    computer|bc|2rdamedia 
338    online resource|bcr|2rdacarrier 
347    text file|2rdaft 
490 1  Energy science, engineering and technology 
504    Includes bibliographical references and index. 
505 2  Thermal wrap for cooling cylindrical lithium iron 
       phosphate / Joel Chiew and Cheng Siong Chin, Satellite 
       Technology and Research Centre, Department of Electrical 
       and Computer Engineering, Faculty of Engineering, National
       University of Singapore, Singapore, and others -- Heat and
       cold thermal energy storage systems : An overview / Rami 
       Saeed, R&D Innovation Center, Phase Change Energy 
       Solutions, North Carolina, US -- Thermal energy storage 
       systems / Satyender Singh, Department of Mechanical 
       Engineering, Dr. B. R. Ambedkar, National Institute of 
       Technology Jalandhar, Punjab, India. 
520    "This book covers an overview and applications of the 
       thermal storage systems used in batteries for the electric
       automotive industry such as in electric vehicles, thermal 
       storage system in smart grid systems, thermal harvesting 
       for battery-less use for wireless sensor networks, thermo-
       electric generators and biomedical sensing. The thermal 
       storage system can be used to harvest energy for 
       implementation of battery-less, zero-maintenance and place
       -and-forget electronic systems. This book has been 
       prepared for the needs of those who seek an application on
       developing the thermal system. The choice of material is 
       guided by the basic objective of making an engineer or 
       student capable of dealing with thermal system design. The
       book can be used as reference book for undergraduate and 
       postgraduate students in the area of thermal system 
       overview, design and applications. Lithium iron phosphate 
       (LiFePO4) batteries have gained significant traction in 
       the electric automotive industry in the recent years 
       mainly due to their high safety performance, flat voltage 
       profile and low cost. Although LiFePO4 batteries have 
       excellent thermal stability, they still suffer from 
       thermal runaway like other lithium-ion type cells. Thermal
       volatility is a major drawback in the lithium-ion and 
       sufficient knowledge of the thermal distribution and heat 
       generation of the LiFePO4 battery is necessary to avoid 
       catastrophic thermal failure. The first chapter details 
       the thermal analysis of a LiFePO4 battery cell with a 
       latent heat thermal cooling wrap. The model has been 
       developed as a tool to study the cooling effects of the 
       wrap on the battery cell during discharging. The proposed 
       latent heat storage based battery cooling wrap is used to 
       passively manage the heat produced by the cell and 
       absorbing and maintaining the battery temperature within 
       operational temperatures and below thermal runaway 
       temperature. Thermal energy storage (TES) is another 
       important concept of the smart grid systems. For non-
       renewable, the benefit of TES systems is the improvement 
       of the generation performance by supporting the energy 
       demand during peak hours. Also, TES is often able to 
       improve the system efficiency in a way that is more energy
       and cost effective. The best-known method for thermal 
       energy storage is by utilizing the latent heat of fusion 
       of energy storage material known as phase change materials
       (PCM). TES systems are classified into two main categories
       such as sensible and latent heat storage. An overview of 
       the research on performance improvement are also 
       delineated. Hence, the thermal energy harvesting has 
       indeed gained attention in the last decade due to its 
       promising possibilities in area such as wireless sensor 
       networks (WSN) for wide range of IoT (Internet of Things) 
       applications. Thermal energy scavenging from waste heat 
       can enable implementation of battery-less, zero-
       maintenance and place-and-forget electronic systems. 
       Scavenging energy from the temperature difference between 
       human body heat and ambiance is an attractive solution for
       powering wearables for continuous health monitoring, 
       biomedical sensing and body area sensor networks (BASN). 
       The low energy efficiency and low voltage output of the 
       thermo-electric generators (TEG) pose challenges to the 
       deployment of industry ready powering systems"--|cProvided
       by publisher. 
588    Description based on online resource; title from digital 
       title page (viewed on May 11, 2020). 
590    eBooks on EBSCOhost|bEBSCO eBook Subscription Academic 
       Collection - North America 
650  0 Heat storage devices.|0https://id.loc.gov/authorities/
       subjects/sh85059815 
650  0 Thermoelectric apparatus and appliances.|0https://
       id.loc.gov/authorities/subjects/sh85134787 
650  7 Heat storage devices.|2fast|0https://id.worldcat.org/fast/
       953986 
650  7 Thermoelectric apparatus and appliances.|2fast|0https://
       id.worldcat.org/fast/1149857 
655  4 Electronic books. 
700 1  Chin, Cheng Siong,|0https://id.loc.gov/authorities/names/
       n2012058311|eeditor. 
776 08 |iPrint version:|tIntelligent thermal energy systems|dNew 
       York : Nova Science Publishers, Inc., [2019]
       |z9781536168273|w(DLC)  2019056818 
830  0 Energy science, engineering and technology series.|0https:
       //id.loc.gov/authorities/names/no2009115408 
856 40 |uhttps://rider.idm.oclc.org/login?url=https://
       search.ebscohost.com/login.aspx?direct=true&scope=site&
       db=nlebk&AN=2270172|zOnline ebook via EBSCO. Access 
       restricted to current Rider University students, faculty, 
       and staff. 
856 42 |3Instructions for reading/downloading the EBSCO version 
       of this ebook|uhttp://guides.rider.edu/ebooks/ebsco 
901    MARCIVE 20231220 
948    |d20211213|cEBSCO|tEBSCOebooksacademic NEW Oct-Nov 5018
       |lridw 
994    92|bRID