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Lead battery

TITANIUMCOMPOUNDS-INORGANIC] (Vol24) -from lead batteries [LEAD] (Vol 15)... [Pg.351]

Because about 80% of the lead consumed in the United States is for use in lead—acid batteries, most recycled lead derives from this source of scrap. More than 95% of the lead is reclaimed. Hence, the bulk of the recycling industry is centered on the processing of lead battery scrap. [Pg.48]

The plates are dried and cured under controlled temperature and humidity conditions producing no wastewater or particulate emissions. Cured plates are sent to a three-process operation that involves manual separation of the plates, stacking them with non-conducting separators, and the welding on of metallic lead battery leads (pronounced leeds ) and lead terminals. The plates are then assembled Into battery cases. [Pg.82]

Prengaman, R. D. Improvements in Alloys, Oxides and Expanders for Lead Batteries, Lead Development Association, London 3 (1984)... [Pg.741]

M. J. Weighall, 5th European Lead Battery Conference, Barcelona, 1996. [Pg.290]

Lead batteries are the storage batteries most widely used at present. This is readily explained by their low price, high reliability, and good performance. Their cycle life is a few hundred charge-discharge cycles, and for some cell types, even more than 1000 cycles. [Pg.353]

Secondary lead Battery scrap, rerun slag, Sulfur dioxide, Slag, emission control... [Pg.89]

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]

Cooper WC. 1981. Mortality in employees of lead production facilities and lead battery plants, 1971-1975. In Lynam DR, et al. eds. Environmental Lead Proceedings of the Second International Symposium on Environmental Lead Research, December, 1978, Cincinnati, OH. New York, NY Academic Press, 111-143. [Pg.504]

Cooper WC, Wong O, Kheifets L. 1985. Mortality among employees of lead battery plants and lead producing plants, 1947-1980. Scand J Work Environ Health 11 331-345. [Pg.504]

Lai JS, Wu TN, Liou SH, et al. 1997. A study of the relationship between ambient lead and blood lead among lead battery workers. Int Arch Occup Environ Health 69(4) 295-300. [Pg.541]

Illinois, 1982 Distance from lead battery reclamation plant 100 m ... [Pg.280]

Certain emergent aquatic plants, especially hydrilla (Hydrilla verticillata) and duckweed (Lemna obscura), removed 97 to 98% of all soluble lead from solution in the vicinity of a lead battery site in Tampa, Florida, suggesting that phytoremediation may be feasible as the basis of a lead removal technology (Gallardo et al. 1999). [Pg.289]

Domestic livestock near smelters, refineries, and lead battery recycling plants... [Pg.323]

Hsiao, C.Y. et al., A longitudinal study of the effects of long-term exposure to lead among lead battery factory workers in Taiwan (1989-1999), Sci. Total Environ., 279, 151, 2001. [Pg.219]

K. V. Kordesch, "City Car with H2-Air Fuel Cell and Lead Battery," 6 Intersociety Energy Conversion Engineering Conference, SAE Paper No. 719015, 1971. [Pg.52]

The child pictured in Figure 1.1 working in a lead battery recycling factory in Bangladesh illustrates the global implications of toxicology. This child will suffer from the effects of lead poisoning for a lifetime and will not be able to reach his intellectual potential. [Pg.4]

Figure 1.1. Child working in a lead battery recycling factory (with permission from Still Pictures/Peter Arnold Inc.). Figure 1.1. Child working in a lead battery recycling factory (with permission from Still Pictures/Peter Arnold Inc.).
Advances in the past few decades have improved car battery technology immensely. Many lead batteries currently manufactured are labeled as maintenance free. This refers to the fact that the acid level in them does not have to be checked. The addition of water to a lead battery is necessary because the charging process causes water to undergo electrolysis. This process creates... [Pg.187]


See other pages where Lead battery is mentioned: [Pg.793]    [Pg.948]    [Pg.1083]    [Pg.525]    [Pg.678]    [Pg.254]    [Pg.1034]    [Pg.31]    [Pg.525]    [Pg.332]    [Pg.353]    [Pg.760]    [Pg.88]    [Pg.1226]    [Pg.48]    [Pg.90]    [Pg.112]    [Pg.129]    [Pg.335]    [Pg.380]    [Pg.425]    [Pg.257]    [Pg.424]    [Pg.257]    [Pg.199]    [Pg.793]   
See also in sourсe #XX -- [ Pg.189 ]

See also in sourсe #XX -- [ Pg.129 , Pg.284 ]




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Advanced Lead Acid Battery

Advanced Lead Acid Battery Consortium

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Advantages of lead-acid batteries

Alloy lead, battery grid

Anodes lead storage battery

Automobiles lead storage batteries

Automobiles lead-acid batteries

Batteries applications lead-acid

Batteries lead storage battery

Batteries lead-acid secondary cells

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Batteries, lead-acid demand

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Charging lead-acid batteries

Conventional lead-acid battery

Development of the Lead—Acid Battery

Economics of and Market for Lead-Acid Batteries

Economics, lead-acid batteries

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Energy and Power of a Lead-Acid Battery Cell

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Flooded-type lead-acid battery

Formation of Positive Lead—Acid Battery Plates

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Lead industrial batteries

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Lead storage battery

Lead storage battery cells

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Lead-Acid Battery Technologies 3 Electrolyte

Lead-acid SLI batteries

Lead-acid batteries Automobile applications

Lead-acid batteries advantages

Lead-acid batteries comparison

Lead-acid batteries components

Lead-acid batteries costs

Lead-acid batteries economical aspects

Lead-acid batteries electrolytes

Lead-acid batteries emissions from

Lead-acid batteries impact

Lead-acid batteries industrial

Lead-acid batteries limitations

Lead-acid batteries manufacturing processes

Lead-acid batteries mathematical modeling

Lead-acid batteries negative electrodes

Lead-acid batteries positive electrodes

Lead-acid batteries production

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Lead-acid batteries rechargeable

Lead-acid batteries recycling costs

Lead-acid batteries recycling technologies

Lead-acid batteries shipments

Lead-acid batteries small-size sealed

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Lead-acid battery commercial designs

Lead-acid battery cycle life

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Lead-acid secondary batteries

Lead-acid secondary batteries activating

Lead-acid secondary batteries advantages

Lead-acid secondary batteries applications

Lead-acid secondary batteries characteristics

Lead-acid secondary batteries chemistry

Lead-acid secondary batteries components

Lead-acid secondary batteries discharge performance

Lead-acid secondary batteries maintenance

Lead-acid secondary batteries pasting

Lead-acid secondary batteries safety

Lead-acid secondary batteries sealed

Lead-acid secondary batteries seals

Lead-acid secondary batteries separators

Lead-acid secondary batteries stationary

Lead-acid secondary batteries voltage

Lead-acid stationary batteries construction

Lead-acid stationary batteries energy density

Lead-acid storage batteries

Lead-add battery

Lead-battery electrode

Lead/acid batteries, behavior

Lead/acid battery, characteristics

Maintenance lead-acid batteries

Motive lead-acid batteries

Negative Plates in Valve-regulated Lead-Acid Batteries

Open-circuit voltage lead-acid batteries

Plante, lead-acid battery

Polarization lead-acid batteries

Recovery and recycling of lead-acid batteries

Recycling of Spent Lead-Acid Batteries

Regulated Lead-Acid Batteries

Safety lead-acid batteries

Sealed lead-acid batteries

Self-Discharge Process in a Lead-Acid Battery

Separators for lead—acid storage battery

Standard SLI and Other Lead-Acid Batteries

Standby batteries, lead acid

Standby batteries, lead acid charging

Stationary lead-acid batteries

Storage batteries, lead usage

The Lead Storage Battery

The Lead-Acid Battery

The Thermodynamic Situation in Lead-Acid Batteries

Traction lead-acid batteries

Traction lead-acid batteries capacity

Types of Lead-Acid Batteries

Valve regulated lead-acid batteries (VRLA

Valve regulated lead-batteries

Valve regulated lead-batteries VRLA)

Valve-regulated lead-acid batteries

Valve-regulated lead-acid batteries application

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