会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 2. 发明申请
    • AUXILIARY ELECTRODES FOR ENHANCED ELECTROSTATIC DISCHARGE
    • 辅助电极用于增强静电放电
    • WO2009079538A1
    • 2009-06-25
    • PCT/US2008/087107
    • 2008-12-17
    • VENTIVA, INC.SCHLITZ, Daniel, Jon
    • SCHLITZ, Daniel, Jon
    • H01J23/34
    • F04B19/006H02N11/006
    • In general, the present invention relates to methods and apparatuses that achieve high gas flow rates through the use of an electrostatic pump. According to some aspects, the present invention relates to additional, auxiliary electrodes that generate increased ion current at lower voltages, which leads to greater pumping power than a corona wind discharge. According to further aspects, the invention provides for a directional emission of the ions. This eliminates the back flow of ions and improves the electro-fluid power conversion efficiency and pumping performance. According to yet further aspects, the invention enables the electrodes to be fabricated directly on a dielectric substrate, making the system mechanically rugged and easily fabricated.
    • 通常,本发明涉及通过使用静电泵实现高气体流速的方法和装置。 根据一些方面,本发明涉及在较低电压下产生增加的离子电流的附加辅助电极,其导致比电晕风放电更大的泵浦功率。 根据另外的方面,本发明提供了离子的定向发射。 这消除了离子的反向流动,并且改善了电流体功率转换效率和泵送性能。 根据另外的方面,本发明使得电极可以直接制造在电介质基底上,使得系统机械地坚固且容易地制造。
    • 4. 发明申请
    • METHOD AND DEVICE TO PREVENT DUST AGGLOMERATION ON CORONA ELECTRODES
    • 用于防止电晕电极上的灰尘聚集的方法和装置
    • WO2008091942A2
    • 2008-07-31
    • PCT/US2008/051790
    • 2008-01-23
    • THORRN MICRO TECHNOLOGIES, INC.SCHLITZ, Daniel, Jon
    • SCHLITZ, Daniel, Jon
    • G03G15/02
    • G03G15/0258G03G15/0291G03G2215/027
    • The present invention is related to preventing dust agglomeration on a sharp electrode which is used for generating corona. According to certain aspects, the invention includes a dust shroud which decreases or prevents dust accumulation on the sharp electrodes. The dust shroud changes the gas flow path so as to reduce the amount of gas passing near the sharp electrode. An advantage of the shroud is that it prevents dust from building up on the electrodes. The shroud is a simple, passive addition to the electrostatic pump, such that the pump is otherwise able to operate normally throughout its life. In embodiments, the shroud can be used to protect a corona electrode used in heat sink applications especially in electronics cooling. It can also be used in electrostatic precipitators for cleaning dust or chemical or microbe particles from air.
    • 本发明涉及防止用于产生电晕的尖锐电极上的粉尘聚集。 根据某些方面,本发明包括减少或防止尖锐电极上积聚灰尘的防尘罩。 防尘罩改变气体流动路径以减少通过锋利电极附近的气体量。 护罩的一个优点是它可以防止灰尘堆积在电极上。 护罩是对静电泵的简单,被动的补充,使得泵在其整个使用寿命期间能够正常运行。 在实施例中,护罩可以用于保护散热器应用中使用的电晕电极,特别是电子冷却。 它也可以用于静电除尘器清洁空气中的灰尘或化学或微生物颗粒。
    • 5. 发明申请
    • CONTOURED ELECTRODES FOR AN ELECTROSTATIC GAS PUMP
    • 用于静电气体泵的轮廓电极
    • WO2008091905A1
    • 2008-07-31
    • PCT/US2008/051722
    • 2008-01-22
    • THORRN MICRO TECHNOLOGIES, INC.SCHLITZ, Daniel, JonSINGHAL, Vishal
    • SCHLITZ, Daniel, JonSINGHAL, Vishal
    • H01J49/02
    • F04D33/00
    • The present invention achieves high gas flow rates through an electrostatic pump having sharp and blunt electrodes with a corona discharge taking place in the gas gap in between the electrodes. According to certain aspects, the invention comprises a specially shaped blunt electrode that is contoured to maintain a constant or approximately constant distance between the sharp (corona) electrode and the neutralizing surface of the blunt electrode. The contour provides maximum electric field enhancement at the corona electrode and minimizes the electric field at the blunt electrode. This maximizes the non-arcing operating voltage and increases the maximum power output of the corona discharge. The contour also isolates neighboring corona electrodes, preventing their electric fields from interfering with one another and making it possible to increase the density of electrodes which further increases the pumping power of the device.
    • 本发明通过具有尖锐和钝极的静电泵实现高气体流速,在电极之间的气隙中发生电晕放电。 根据某些方面,本发明包括一种特殊形状的钝极,其轮廓是在锋利(电晕)电极和钝极的中和表面之间保持恒定或近似恒定的距离。 轮廓在电晕电极处提供最大的电场增强,并使钝极处的电场最小化。 这使得非起弧工作电压最大化并且增加电晕放电的最大功率输出。 轮廓也隔离相邻的电晕电极,防止它们的电场彼此干扰,并且可以增加电极的密度,这进一步增加了装置的泵浦功率。
    • 7. 发明申请
    • MICRO-CHANNEL HEAT SINK
    • 微通道散热器
    • WO2006017301A2
    • 2006-02-16
    • PCT/US2005/024720
    • 2005-07-11
    • THORRN MICRO TECHNOLOGIES, INC.SCHLITZ, Daniel, Jon
    • SCHLITZ, Daniel, Jon
    • H01L23/473
    • H01L23/467H01L23/367H01L23/427H01L2924/0002H01L2924/00
    • A heat sink with an arrangement of a plurality of micro-fins, spaced apart to form micro-channels through which a gas can flow. The heat sink includes a conductive apparatus for conducting heat from a heat source to the arrangement of micro-fins. The conductive apparatus includes a post, with a bottom surface at a proximal end for contact with a heat source. The arrangement extends radially outward from the post at a more distal end spaced apart from the bottom surface of the post. In one embodiment, the conductive apparatus includes a plurality of ribs extending radially outward from the post. Each micro-fin has a length that bridges the space between two ribs. The micro-fins are spaced substantially parallel to each other to form micro-channels for passage of cooling gas. Another embodiment includes a plurality of micro-fins extending substantially perpendicularly outward from the post, and separated to form micro-channels. Another embodiment includes a plurality of micro-fins extending substantially perpendicular to a rectangular post. In operation, heat is conducted from the heat source, through the post to the micro-fins, and into gas around each micro-fin. A fan or other gas pump can be used to force a flow of the gas through the micro-channels and thereby through the arrangement.
    • 散热器,其具有多个微型翅片的布置,间隔开以形成气体可以流过的微通道。 散热器包括用于将热量从热源传导到微鳍片的布置的导电装置。 导电装置包括柱,其底表面在近端用于与热源接触。 该布置在与柱的底表面间隔开的更远端处从柱径向向外延伸。 在一个实施例中,导电装置包括从柱径向向外延伸的多个肋。 每个微翅片具有跨越两个肋之间的空间的长度。 微型散热片彼此间隔开大致平行,形成用于冷却气体通过的微通道。 另一个实施例包括从柱子基本垂直向外延伸的多个微型翅片,并分离形成微通道。 另一个实施例包括大致垂直于矩形柱延伸的多个微型翅片。 在操作中,热量从热源通过柱子传导到微型翅片,并且在每个微型翅片周围进入气体。 可以使用风扇或其他气体泵来迫使气体流过微通道,从而通过该装置。