The development of an improved zinc/silver- oxide battery
Primary zinc, silver oxide battery design
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Primary zinc, silver oxide battery design
Sterilizable battery separator material preparation process
Identification and characterization of battery active compound structures formed on nickel oxide electrode during charging and discharging
Polymer separator materials for heat sterilizable battery
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Preparation, consolidation, and fabrication of chromium-rhenium chromium-manganese and other chromium-base alloys
Low temperature batteries for deep space probes and extending battery usefulness by heating
Inorganic separator for high temperature silver-zinc battery
Filler and matrix composite materials for use in silver-zinc battery separators
Active compound formation on battery nickel oxide electrode during charge, overcharge, and discharge
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In formulating ideas on the relationship of gravity to the development, growth, and reproduction of microorganisms, a rather liberal definition of microorganisms is used which includes bacteria, yeasts, protists, filamentous fungi, and single cells in culture. A principal advantage of microorganisms as experimental subjects is the rigor with which they can be defined and controlled. As single cells, each cell may be regarded as identical to the others in the population. This property applies to the morphology, physiology, and genetic parameters of the cells. The growth and development of the population is subject to precise manipulation as the nutritional requirements are known and minimal media formulations have been developed. Growth and differentiation can be manipulated in a variety of ways, such as alteration of the culture temperature and food supply, or by use of mutants. Finally, the short generation times of microorganisms provide the opportunity to conduct multigenerational studies within practical time limits and, in a similar vein, cellular responses to various stimuli or stresses are conveniently monitored because of the rapid response times of single cells.