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    • 54. 发明授权
    • Cooling arrangement for heat generating electrical components
    • 用于发热电气部件的冷却装置
    • US4709752A
    • 1987-12-01
    • US879728
    • 1986-06-27
    • Johann SchroderKlaus GawronLeo BertramHugo Schemmann
    • Johann SchroderKlaus GawronLeo BertramHugo Schemmann
    • F28D20/00A45D20/12C09K5/00C09K5/06C09K5/08H05K7/20H02K9/00
    • C09K5/063A45D20/12Y10S165/902
    • A protection against overheating not only of the heat transmitting component (2), but also of the components (3) surrounding said component is achieved. A latent heat store (1) is provided between the heat transmitting component (2) or a part thereof and a component (3) to be protected from overheating or a part thereof. The latent heat store (1) comprises a latent heat storing agent, whose melting-point T is between the operating temperature of the heat transmitting component (2) and the maximum permissible temperature of the component (3) to be protected. The quantity is proportioned so that the storage capacity of the latent heat store (1) is sufficient for the amount of heat maximally to be transmitted by the heat transmitting component (2). Between the heat transmitting component (2) and the latent heat source (1) and between the latent heat store (1) and the component (3) to be protected a thermal insulation (4,5) is provided. The melting-point T of the latent heat storing agent and the thicknesses d of the insulations (4,5) are proportioned so that the temperature gradient .DELTA.T/d from the heat transmitting component (2) which is at operating temperature to the latent heat store (1) is greater than the temperature gradient .DELTA.T/d from the latent heat store (1) to the component (3) to be protected.
    • 实现了不仅对传热部件(2)的过热保护,而且还实现了围绕所述部件的部件(3)的过热保护。 在传热部件(2)或其一部分和要防止过热的部件(3)或其一部分之间设置潜热储存器(1)。 潜热贮存器(1)包括潜热蓄积剂,其熔点T在传热部件(2)的工作温度和被保护部件(3)的最大允许温度之间。 数量成比例,使得潜热贮存器(1)的存储容量足以使由热传递部件(2)传输的热量最大。 在传热部件(2)和潜热源(1)之间以及潜热储存器(1)和要保护的部件(3)之间提供绝热(4,5)。 潜热蓄积剂的熔点T和绝缘体(4,5)的厚度d成比例,使得来自传热部件(2)的温度梯度DELTA T / d在工作温度下为潜伏 热存储器(1)大于从潜热贮存器(1)到要保护的部件(3)的温度梯度DELTA T / d。
    • 55. 发明授权
    • Heat exchange fluid particularly for closed loop solar energy collecting
systems
    • 热交换流体特别适用于闭环太阳能收集系统
    • US4636325A
    • 1987-01-13
    • US723451
    • 1985-04-15
    • Jay S. Greene
    • Jay S. Greene
    • F24J2/04C09K5/00C09K5/08F24J2/46F24J2/48
    • C09K5/08
    • A heat exchange liquid has a heat absorption rate between about 40,000 BTUs per pound--one million BTUs per pound, and is useful with any conventional solar energy collection equipment. The heat exchange liquid is passed in heat exchange relationship in a closed loop through a heat conductive conduit system into operative association with a solar collecting device, and absorbs heat at the device. The heat exchange liquid is non-combustible, non-toxic, and biodegradable and has a pH of between about 7.4-7.6. The major component of the concentrate which forms the heat exchange liquid is a linear alkylate sulfonate, non-ionic detergent and lauric superamide detergent mixture. It also includes dark colored (e.g. black) vegetable color, vitamin B-6, and bicarbonate soda or alfalfa. The concentrate can be mixed with water, and comprises about 20-99.9 percent of the heat exchange liquid, while the water comprises the remaining about 0.1 percent-80 percent.
    • 热交换液体的吸热率在每磅每磅大约40,000BTU之间 - 每磅一百万BTU,并且对于任何传统的太阳能收集设备是有用的。 热交换液体通过导热管道系统在闭环中以热交换的关系通过与太阳能收集装置的操作关联,并吸收设备的热量。 热交换液体不燃,无毒,可生物降解,pH值在7.4-7.6左右。 形成热交换液体的浓缩物的主要组分是直链烷基化物磺酸盐,非离子洗涤剂和月桂酸超酰胺洗涤剂混合物。 它还包括深色(例如黑色)蔬菜色素,维生素B-6和碳酸氢钠苏打或苜蓿。 浓缩物可以与水混合,并且包含约20-99.9%的热交换液体,而水包含剩余的约0.1%-80%。
    • 58. 发明授权
    • Solar energy storage materials
    • 太阳能储能材料
    • US4497724A
    • 1985-02-05
    • US490202
    • 1983-04-29
    • Teijiro KitaoJun-ichiro SetsuneShoichi IshiharaRyoichi Yamamoto
    • Teijiro KitaoJun-ichiro SetsuneShoichi IshiharaRyoichi Yamamoto
    • C09K5/00C09B7/00C09K5/08C09K5/16F24J2/48
    • C09K5/16
    • This invention relates to a solar energy storage material comprising N,N'-bis(phenylacetyl)indigo dissolved in a polar solvent. Of the indigo derivatives capable of storing the solar energy by the photoisomerization from trans-isomer to cis-isomer of the molecule, all of the compounds obtained so far had an energy storage capacity of only 30 cal or less per 1 g of the compound and also a high thermal isomerization rate from cis form to trans form in solution. Thus, they cannot be called a solar energy storage material of practical value.In the case of the present invention, on the other hand, when N,N'-bis(phenylacetyl)indigo is dissolved in a polar solvent such as acetonitrile, it is possible to store about 60 cal of energy per 1 g of N,N'-bis(phenylacetyl)indigo, and the half-life period of isomerization from cis to trans from in acetonitrile at 17.degree. C. is 1,264 minutes, which is also a satisfactory value for practical application.
    • 本发明涉及一种太阳能储存材料,其包含溶解在极性溶剂中的N,N'-双(苯乙酰基)靛蓝。 能够通过光分解从分子的反式异构体到顺式异构体存储太阳能的靛蓝衍生物中,迄今为止所获得的所有化合物的每1克化合物的储能能力仅为30cal或更少, 在溶液中也具有从顺式形式到反式形式的高热异构化速率。 因此,它们不能被称为实用价值的太阳能储存材料。 在本发明的情况下,另一方面,当N,N'-双(苯乙酰基)靛蓝溶解在极性溶剂如乙腈中时,可以每1g N存储约60cal的能量, N'-苯基乙酰基靛蓝,17℃在乙腈中从顺式异构化到反式的半衰期为1,264分钟,这也是实际应用中令人满意的值。