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Solar cell battery

It is well known that Ti02 is widely used in cosmetics, solar cells, batteries, additives in toothpaste and white paint, and others. Recently, there is a considerable interest in using Ti02 nanoparticles as a film-forming material since they have high... [Pg.567]

Surfactant-based synthesis of mesoporous metal oxides and metal sulfides emerged about four years after the initial report of MCM-41 [21-36]. High surface area and thermally robust mesoporous metal oxides and sulfides represent a new class of materials with diverse opportunities for the development of improved fuel and solar cells, batteries, membranes, chemical delivery vehicles, heavy metal sponges, sensors, magnetic devices and new catalysts. All of these applications could benefit from tailorable Bronsted and Lewis acidity and basicity, flexible oxidation states, and tunable electronic, optical and magnetic properties. [Pg.42]

These devices are usually encapsulated in plastic. Si diode photocells have an expected lifetime of 40 years. In late 2001, with batteries to provide power at night, desert climates can get solar power for about 0.08 per kWh (kilowatt-hour) using Si solar cells, batteries, and electronic inverters. By contrast, nuclear and hydroelectric power plants can provide power at 0,015 to 0.03 per kWh. Solar power is already cheaper than internal combustion... [Pg.583]

Given the unique structure and properties of CPs (light weight, good tensile strength and flexibility) they have been shown as promising electrode materials for a range of different applications such as supercapacitors, sensors, solar cells, batteries, electrochromic cells and actuators [70-75]. However, CPs... [Pg.263]

M. C. Orilall, U. Wiesner, Block Copolymer Based Composition and Morphology Control in Nanostructured Hybrid Materials for Energy Conversion and Storage Solar Cells, Batteries, and Fuel Cells. Chem. Soc. Rev. 2011,40, 520. [Pg.95]

M.C. Orilall, U. Wiesner, Block copolymer based composition and morphology control in nanostructured hybrid materials for energy conversion and storage solar cells, batteries, and fuel cells. Chemical Society Reviews 40 (2011) 520-535. [Pg.157]

Nanostructured semiconductors are getting extensive attention due to their unique electronic and optical properties and potential applications in nanoscale sensors, catalysts, solar cells, batteries, and biomedicine. [Pg.37]

Cadmium hydroxide is the anode material of Ag—Cd and Ni—Cd rechargeable storage batteries (see Batteries, secondary cells). Cadmium sulfide, selenide, and especially teUuride find utiUty in solar cells (see Solarenergy). Cadmium sulfide, Hthopone, and sulfoselenide are used as colorants (orange, yellow, red) for plastics, glass, glazes, mbber, and fireworks (see Colorants for ceramics Colorants forplastics Pigments). [Pg.392]

The current needed for cathodic protection by impressed current is supplied from rectifier units. In Germany, the public electricity supply grid is so extensive that the CP transformer-rectifier (T-R) can be connected to it in most cases. Solar cells, thermogenerators or, for low protection currents, batteries, are only used as a source of current in exceptional cases (e.g., in sparsely populated areas) where there is no public electricity supply. Figure 8-1 shows the construction of a cathodic impressed current protection station for a pipeline. Housing, design and circuitry of the rectifier are described in this chapter. Chapter 7 gives information on impressed current anodes. [Pg.225]

In inaccessible regions where an impressed current installation is not sufficiently close to a low voltage supply, the protection current can be supplied from batteries, thermogenerators, and if there is sufficient radiation from the sun, solar cells. Wind generators and diesel units, on the other hand, are less suitable because of the maintenance necessary for continuous operation. [Pg.237]

There is a need for small compressors to be driven from low-voltage d.c. supplies. Typical cases are batteries on small boats and mobile homes, where these do not have a mains voltage alternator. It is also possible to obtain such a supply from a bank of solar cells. This requirement has been met in the past by diaphragm compressors driven by a crank and piston rod from a d.c. motor, or by vibrating solenoids. The advent of suitable electronic devices has made it possible to obtain the mains voltage a.c. supply for hermetic compressors from low-voltage d.c. [Pg.45]

D. Linden (Ed.), Handbook of Batteries and Solar Cells, McGraw-Hill, New York 1984. [Pg.409]

A comprehensive survey of solar rechargeable PEC batteries, up to 1991, along with the historical development of photoelectrochemical cells has been given by Sharon et al. [61]. The principles and performance of solar PEC batteries with or without a membrane, with an aqueous solution or with solid-state electrolytes, are discussed there. [Pg.221]

The low-melting-point (157 °C), silver metal is mainly used in alloys to decrease the melting point. Combined with tin, lead, and bismuth to produce soldering metal for wide temperature ranges. The element is highly valuable in the electronics age as its unique properties are ideal for solar cells, optoelectronics, and microwave equipment. The arsenide is used in lasers and is also suitable for transistors. ITO (indium tin oxide) is a transparent semiconductor with wide application in displays, touchscreens, etc. In the household, indium as an additive prevents the tarnishing of silverware. Some electronic wristwatches contain indium batteries. [Pg.137]

In addition to their potential use as structural composites, these macroscopic assemblies of nanocarbons have shown promise as mechanical sensors [83], artificial muscles [84], capacitors [85], electrical wires [59], battery elements [85], dye-sensitized solar cells [86], transparent conductors [87], etc. What stands out is not only the wide range of properties of these type of materials but also the possibility of engineering them to produce such diverse structures, ranging from transparent films to woven fibers. This versatility derives from their hierarchical structure consisting of multiple nano building blocks that are assembled from bottom to top. [Pg.248]


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See also in sourсe #XX -- [ Pg.52 ]




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