Big Chemical Encyclopedia

Chemical substances, components, reactions, process design ...

Articles Figures Tables About

Battery parts

Refrigerator parts, packaging, structural housing panels, pipe, defroster and heater ducts, sterilisable household items and hospital equipment, hoops, battery parts, blow moulded containers, including automotive petrol tanks, film wrapping materials, wire cable and insulation and chemical-resistant pipe. [Pg.79]

But the transfer rate is low. Does it depend on animals ingesting battery parts Could cows ingest lead in this way ... [Pg.348]

A wide variety of carbonaceous materials can intercalate or insert lithium reversibly and thus may be candidates for anodes for lithium ion batteries. In recent years, many types of carbons have been tested as alternative anodes for rechargeable lithium batteries, part of which have found use as anodes in practical, commercial lithium ion batteries. The most straightforward way of classifying these electrodes is according to the type of the carbon, which determines their capacity and basic electrochemical behavior. The major types of carbons tested in recent years as anode materials for Li ion batteries are listed below ... [Pg.373]

Saunier, AUoin, E, Sanchez, J.-Y., Maniguet, L, 2004. Plasticized microporous PVdF separators for lithium ions batteries. Part 111 gel properties and irreversible modifications of PolyfvinyUdene fluoride) membranes under swelling in liquid electrolyte. J. Polym. Sci. Part B 42,2308-2317. [Pg.239]

Sun, X. G. AngeU, C. A., New sulfone electrolytes for rechaigeable lithium batteries, part I. oligoether-containing sulfones, Electrochem. Commun. 2005, 7,261-266. [Pg.166]

Figure 6.29 Pictorial illustration of the model of the charging process in polymer electrolyte batteries. Part of the capacity is lost by shunt along dendrites and by electrical isolation of some intercalation compound particles. From [16] by permission of Elsevier Sequoia S.A. Figure 6.29 Pictorial illustration of the model of the charging process in polymer electrolyte batteries. Part of the capacity is lost by shunt along dendrites and by electrical isolation of some intercalation compound particles. From [16] by permission of Elsevier Sequoia S.A.
PES finds application in aircraft interior parts because of its low smoke emission. Electrical applications include switches, integrated circuit carriers, and battery parts. The high-temperature oil and gas resistance allow PES to be used in automotive applications. The ability of PES to endure repeated sterilization allows it to be used in a variety of medical applications. Consumer uses include cooking equipment and lighting fittings. PES can also be vacuum metallized for a high-gloss mirror finish. They are also used for specialized adhesive and lacquer applications. [Pg.428]

Storage life of secondary batteries is limited by chemical reactions (side reactions) that occur between the battery parts and the electrolyte. Due to this reaction internal parts may corrode and fail, or the active materials may be slowly converted to inactive forms and may be lost due to physical changes of volume this may limit the life of the battery. [Pg.216]

Singh P, White K, Parker AJ (1983) Application of non-aqueous solvents to batteries part I. Physicochemical properties of propionitrile/water two-phase solvent relevant to zinc— bromine. J Power Sources 10 309-318. doi 10.1016/0378-7753(83)80013-5... [Pg.43]

Sarciaux S, Le Gal La Salle A, Verbaere A, Piffard Y, Guyomard D (1999) y-Mn02 for li batteries part I. y-Mn02 relationships between synthesis conditions, material characteristics and performances in lithium batteries. J Power Sources 81-82 656-660... [Pg.1188]

Subset of original Boston cohort at 19-20 years old Tests of spatial memory, memory span, cognitive flexibility, planning Pb-teeth Higher Pb-teeth significantly linked to poorer scores on certain battery parts Bellinger etal. (1994)... [Pg.463]

Poly(2,2-bis(4 -phenylene)propane carbonate) is a relatively expensive material and its main applications have been in fields where its desirable properties justify the cost. The polymer is processed mainly by injection moulding and the electrical and electronics industries are the largest users mouldings are used for battery parts, coil formers, fuse covers, and a host of other components. There is also some use in domestic mouldings such as food mixer housings, kitchen utensils and babies bottles. [Pg.243]

The overall dimensions of these tubular plate-type cells also accord to the lEC Standard 60 254-2, Lead-acid traction batteries, part 2, cell dimensions for traction batteries . [Pg.130]

As international safety standard lEC 60086-4, Primary Batteries, Part 4 Safety Standard for Lithium Batteries, is valid for lithium primary batteries and lEC 61960-1 and 61960-2, Secondary Lithium Cells and Batteries for Portable Applications, Part 1 Secondary Lithium Cells and Part 2 Secondary Lithium Batteries, apply to the secondary techniques. Here the details of test and approval procedures can be found. [Pg.491]

The present situation is made easier by the comparably low turnover of lithium batteries. Partly batteries are disposed of as harmless in normal sanitary landfills (like primary lithium/manganese dioxide cells), partly more active systems are brought to special landfills (like lithium/sulfur dioxide together with neutralizing amounts of limestone), and partly batteries are burned in special ovens in combination with oil (like lithium/thionylchloride batteries). [Pg.492]

Primary Batteries—Part 4 Safety for Lithium Batteries... [Pg.116]

Primary Batteries—Part 5 Safety of Batteries with Aqueous Electrolyte... [Pg.116]

B. V. Ratneikumar and S. Sathyemarayana, The Delayed Action of Magnesium Anodes in Primary Batteries. Part I Experimented Studies, J. Power Sources 10 219 (1983). [Pg.240]

Ultimately the battery parts will be reclaimed or sent for disposal. The most significant parts of the battery in this respect are the cell stacks and electrolyte. The battery stacks are nearly all plastic and can be recycled by conventional processes and new processes that are being developed by the plastics industry. The electrolyte is not consumed in the battery. It will be removed and reused in other batteries. [Pg.1266]

Sun XG, Angell CA (2005) New sulfone electrolytes for rechargeable lithium batteries part I. Oligoether-containing sulfones. Electrochem Common 7 261-266. doi 10.1016/j.elecom. 2005.01.010... [Pg.259]

Scamman DP, Reade GW, Roberts EPL (2009) Numerical modelling of a bromide-polysulphide redox flow battery Part 1 modelling approach and validation for a pilot-scale system. J Power Sources 189 1220-1230. doi 10.1016/j.jpowsour.2009.01.071... [Pg.708]

Alkathene insulating tough and relatively battery parts, ice trays, film... [Pg.606]

Manhole steps, paint buckets, ice scrapers, fast-food trays, lawnmower wheels, automobile battery parts... [Pg.875]

The International Electrochemical Commission (lEC) have prepared a battery standards specification EEC Publication 86 Primary Cells and Batteries, Parts 1 and 2, 1975. The relevant British Standard is BS 397. Both are available from the British Standards Institution, 2 Park Street, London WlA 2BS. [Pg.740]

BS 397 Primary Batteries Part 3 1985. Specification for batteries not included in Parts 1 and 2. Specifications for batteries manufactured in the UK which are not standardized internationally and therefore are not included in Parts 1 and 2 of this standard. Gives dimensions, discharge conditions and drawings and terminal details where applicable. No current standard is superseded. 46 pages. Gr 7 ( 22.00). [Pg.740]

Engineering Uses Sheet, geotextiles and geomembranes, gas and water pipes and fittings, large chemical containers and drums, automobile fuel tanks, barrels, battery parts, industrial containers, cable jacketing, pallets. [Pg.7]


See other pages where Battery parts is mentioned: [Pg.160]    [Pg.142]    [Pg.160]    [Pg.133]    [Pg.160]    [Pg.21]    [Pg.1399]    [Pg.362]    [Pg.106]    [Pg.81]    [Pg.430]    [Pg.1729]    [Pg.130]    [Pg.366]    [Pg.366]    [Pg.110]    [Pg.97]    [Pg.63]   
See also in sourсe #XX -- [ Pg.221 , Pg.223 ]




SEARCH



PART 2. LITHIUM BATTERIES

© 2024 chempedia.info