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Batteries history

Source Rosch, W., Batteries History, Present, and Future of Battery Technology, EXTREMETECH. Available at http // www.extremetech.com/, June 2001 U.S. EPA, Battery Manufacturing, U.S. Environmental Protection Agency, Washington, DC, 1981. [Pg.1310]

Corrosion Doctors, 1999, http //www. corrosion-doctors.org/Batteries/History. htm. [Pg.421]

Accordingly, our new thermodynamic methods do allow for a clear recognition of the nature of the aging mode together with the aging conditions an LIB cell has experienced. To the authors knowledge, this is the first time such a battery history or aging memory has been imveiled [20]. [Pg.597]

Other information. Data is collected during the life of the battery to update the database and, as needed, make changes to maintain optimum performance. Other information can also be included or collected, such as battery chemistry and characteristics, manufacturing information (battery manufacturer can electronically stamp batteries at time of manufacture) and battery history, cycle count and other such data for a complete accounting of the battery s usage. [Pg.135]

The use of mercury for extracting precious metals by amalgamation has a long history and was extensively used by Spain in the sixteenth century when her fleet carried mercury from Almaden to Mexico and returned with silver. However, environmental concerns have resulted in falling demand and excess production capacity. It is still used in the extraction of gold and in the Castner-Kellner process for manufacturing chlorine and NaOH (p. 72), and a further major use is in the manufacture of batteries. It is also used in street lamps and AC rectifiers, while its small-scale use in thermometers, barometers and gauges of different kinds, are familiar in many laboratories. [Pg.1203]

The early history of ionic liquid research was dominated by their application as electrochemical solvents. One of the first recognized uses of ionic liquids was as a solvent system for the room-temperature electrodeposition of aluminium [1]. In addition, much of the initial development of ionic liquids was focused on their use as electrolytes for battery and capacitor applications. Electrochemical studies in the ionic liquids have until recently been dominated by work in the room-temperature haloaluminate molten salts. This work has been extensively reviewed [2-9]. Development of non-haloaluminate ionic liquids over the past ten years has resulted in an explosion of research in these systems. However, recent reviews have provided only a cursory look at the application of these new ionic liquids as electrochemical solvents [10, 11]. [Pg.103]

Li ion batteries are heavily advertised as the future power sources for electric vehicles. This seems premature because the technology of heat management and many questions of safety are not solved. Fuel cells and several types of secondary batteries have a long history in the field of electric vehicle propulsion, with successes and failures. For information on electric vehicle batteries, see [16-22],... [Pg.73]

The history of the lead-acid battery goes back to 1854 when Sinsteden published performance data on this battery system for the first time (cf. Ref., [1]). The practical... [Pg.153]

D. Tuomi in Proc. Symp. on History of Battery Technology (Ed A. Salkind) The Electrochemical Society, Pennington, NJ, 1987, p. 21. [Pg.244]

A comprehensive modern survey of separators for electrochemical power sources exists only in incomplete parts [1-3], and textbooks on batteries treat this important element only as a side aspect [4-11]. This section is an attempt to describe, besides some fundamental aspects, the development history of the battery separator,... [Pg.245]

The physicochemical properties of carbon are highly dependent on its surface structure and chemical composition [66—68], The type and content of surface species, particle shape and size, pore-size distribution, BET surface area and pore-opening are of critical importance in the use of carbons as anode material. These properties have a major influence on (9IR, reversible capacity <2R, and the rate capability and safety of the battery. The surface chemical composition depends on the raw materials (carbon precursors), the production process, and the history of the carbon. Surface groups containing H, O, S, N, P, halogens, and other elements have been identified on carbon blacks [66, 67]. There is also ash on the surface of carbon and this typically contains Ca, Si, Fe, Al, and V. Ash and acidic oxides enhance the adsorption of the more polar compounds and electrolytes [66]. [Pg.430]

Blood lead levels, urinary lead levels, serum creatinine, blood urea nitrogen (BUN), creatinine clearance (CCT), and NAG were measured in 158 male and 51 female workers in a lead battery factory or a lead smelting plant in Japan (Ong et al. 1987). Controls consisted of 30 professional and laboratory staff members with no history of renal disease or lead exposure. The length of exposure to lead averaged 10.8 8.0 years with a range of 1-36 years. Exposure levels were not available, but indicators of lead body burden in the exposed workers were PbB level = 3.0-80.0 pg/dL and urinary lead level =... [Pg.66]

This brief review has concentrated on the development of the production methods of brass in Europe, but it must be remembered that a number of other dates are important in the history of the various manufacturing processes, such as ca. AD 1697 for the introduction of the rolling mill to replace the battery process, which, however, continued in use in some places to the end of the 18th Century. [Pg.207]

Up until more recent history, most of the separators and membranes historically used had not been specifically developed for battery applications. Thus, future research should be aimed at developing separators that are specifically tailored for battery applications. The general objectives of separator research should be as follows (a) to find new and cost-effective separators, (b) to understand the separator properties in batteries, and (c) to optimize separator properties related to specific cell performance, life. [Pg.219]

The medical treatment of delirium includes finding and removing the cause of the delirium and controlling the behavioral consequences of delirium. When searching for the cause of delirium, your patient s physician will perform a thorough physical exam, will review the recent medical history, will review the current medications, and will order a battery of laboratory tests. Because medications can cause or contribute to delirium, any medications that are not absolutely necessary and can safely be discontinued (at least temporarily) should be stopped. [Pg.306]


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See also in sourсe #XX -- [ Pg.2 , Pg.2 , Pg.3 ]




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