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    • 1. 发明授权
    • Storage cassette for laboratory objects
    • 实验室物体的储存盒
    • US09174790B2
    • 2015-11-03
    • US14103255
    • 2013-12-11
    • LICONIC AG
    • Cosmas Malin
    • B65D81/38F25D3/10A01N1/02G01N35/00
    • B65D81/38A01N1/0257F25D3/102G01N2035/00435
    • A storage system (1) has a chamber (3). In the chamber (3), multiple storage tanks (5) are arranged, and a picking and placing device (8) is arranged above these tanks. Carrousels (8) are arranged in the storage tanks. These carrousels are suspended from a top pivot bearing (35) and laterally guided by a bottom pivot bearing (44). The top pivot bearing (35) is located outside the insulation (12) of the storage tanks and is thus protected from extreme temperatures. In the carrousel (18), storage cassettes (20) are arranged which are laterally held by guide elements (31).
    • 存储系统(1)具有室(3)。 在室(3)中,设置有多个储罐(5),并且在这些罐之上布置有拾取和放置装置(8)。 转盘(8)布置在储罐中。 这些转盘从顶部枢转轴承(35)悬挂并由底部枢转轴承(44)横向引导。 顶部枢转轴承(35)位于储罐的绝缘体(12)的外部,因此被保护免受极端温度的影响。 在转盘(18)中,布置有由引导元件(31)横向保持的存储盒(20)。
    • 7. 发明申请
    • Preserving system
    • 保存系统
    • US20040000151A1
    • 2004-01-01
    • US10602515
    • 2003-06-24
    • Sanyo Electric Co., Ltd.Sanyo Electric Biomedical Co., Ltd.
    • Kazuo Takemasa
    • F25B009/00F17C003/10F25D017/02
    • F17C3/085F17C3/10F17C13/021F17C13/025F17C2205/0326F17C2205/0332F17C2221/014F17C2223/0161F17C2223/033F17C2250/0408F17C2250/043F17C2270/02F25B9/14F25B2500/06F25D3/102F25D16/00
    • To provide a preserving system capable of re-using vaporized nitrogen, and moreover, capable of always cooling the specimens at a predetermined temperature or lower. The preserving system comprising a cylinder and the preserving vessel which is supplied with liquid nitrogen from this cylinder, is provided with a Stirling refrigerator and a condensing chamber arranged outside of said preserving vessel, and the gas phase part of this condensing chamber is made to communicate with that of said preserving vessel and also the liquid phase part is made to communicate with that of said preserving vessel, and further the cooling part of said Stirling refrigerator is arranged in said condensing chamber, therefore, the nitrogen vaporized in the preserving vessel is cooled by the cooling part of the Stirling refrigerator in the condensing chamber and liquefied again, and so this liquid nitrogen can be reused for cooling the preserving vessel. Moreover, since the preserving vessel can be cooled by the liquid nitrogen when performing maintenance on the Stirling refrigerator, the specimens in the preserving vessel can always be cooled at a predetermined temperature or lower.
    • 为了提供能够重新使用蒸发的氮气的保存系统,此外,能够在预定温度或更低的温度下始终冷却样品。 该保存系统包括一个气缸和从该气缸供给液氮的保存容器,设置有一个布置在所述保存容器外部的斯特林制冷机和一个冷凝室,该冷凝室的气相部分被连通 与所述保存容器的液相部分相通,并使液相部分与所述保存容器连通,并且所述斯特林制冷机的冷却部分进一步设置在所述冷凝室中,因此将保存容器中蒸发的氮气冷却 通过冷凝室中的斯特林冰箱的冷却部分再次液化,因此这种液氮可以重新用于冷却保存容器。 此外,由于当在斯特林制冷机上进行维护时保存容器可以被液氮冷却,所以保存容器中的试样可以总是在预定温度或更低温度下冷却。
    • 8. 发明申请
    • Freezer and plant gas system
    • 冷冻和植物气体系统
    • US20020194853A1
    • 2002-12-26
    • US10171347
    • 2002-06-12
    • Michael D. Cashin
    • F25D025/00
    • C21D6/04F25D3/102F25D29/001
    • An improved freezer and plant gas system that harnesses the cooling properties of the plant gas evaporator to facilitate energy and cryogen savings, as well as the automation and optimization of a plant thermal processing system. The freezer preferably includes an internally mounted evaporator sized to meet the gas requirements of the plant processes requiring inert gas. By evaporating the plant gas in the freezer, the freezer can be remotely located from the liquid cryogen source while still making liquid cryogen available when called for during a cryogenic treatment process metal or other materials. In addition, by evaporating in the freezer the freezer is able to harness the cooling properties of the evaporator to pre-cool the freezer and material prior to use of liquid in the cooling cycle. Alternatively, a liquid load basket is adapted to economically thermally treat materials in a deep cryogenic treatment.
    • 改进的冷冻和植物气体系统,利用植物气体蒸发器的冷却特性,以便节省能源和冷冻剂,以及工厂热处理系统的自动化和优化。 冷冻器优选地包括内部安装的蒸发器,其尺寸适于满足需要惰性气体的设备工艺的气体需求。 通过蒸发冷冻机中的植物气体,冷冻器可以远离液体冷冻剂源,同时在低温处理过程金属或其他材料期间要求液态冷冻剂可用。 此外,通过在冷冻机中蒸发,冷冻机能够利用蒸发器的冷却特性来在冷却循环中使用液体之前对冷冻器和材料进行预冷却。 或者,液体负载篮适于在深低温处理中经济地热处理材料。
    • 9. 发明授权
    • Apparatus and method for strengthening articles of manufacture through cryogenic thermal cycling
    • 通过低温热循环加强制品的装置和方法
    • US06332325B1
    • 2001-12-25
    • US09641387
    • 2000-08-17
    • Edward Monfort
    • Edward Monfort
    • F25D2500
    • F25D29/001C21D1/785C21D6/04F25D3/102
    • An apparatus for subjecting articles of manufacture to a cryogenic thermal cycling process includes a bottom portion and a lid. The bottom portion comprises an outer and inner tank separated by a plurality of insulation layers. The inner tank defines an inner cavity wherein the articles are subjected to the cryogenic process. A thermal break is provided between the lid and bottom portion so that the temperature of the inner cavity does not conduct to the outer tank of the apparatus bottom portion. The process conducted in the apparatus is controlled by a pre-programmed profile inputted by a key controller or PC. Liquid nitrogen is the preferred cryogenic material to be employed. The novel process subjects the article to extreme negative temperatures thereafter cycling the article between a set of negative temperatures for a number of cycles. The process is completed by heating the article to an extreme positive temperature and then allowed to cool to ambient room temperature. The novel cryogenic thermal cycling process strengthens the article by realigning its molecular structure to eliminate micro-cracking and other manufacturing deforming characteristics.
    • 用于使制品进行低温热循环过程的装置包括底部和盖。 底部包括由多个绝缘层隔开的外槽和内箱。 内罐限定了内部空腔,其中制品经受低温处理。 在盖和底部之间设置热断裂,使得内腔的温度不会传导到设备底部的外槽。 在设备中进行的处理由由键控制器或PC输入的预编程配置文件来控制。 液氮是所用的优选低温材料。 该新方法使物品处于极端的负温度,此后将物品在一组负温度之间循环多个循环。 该过程通过将制品加热至极端正温度然后冷却至环境室温来完成。 新型低温热循环工艺通过重新分配其分子结构来加强制品,消除微裂纹等制造变形特性。