公开(公告)号：US20100170660A1

公开(公告)日：2010-07-08

申请号：US12628331

申请日：2009-12-01

Applicant: Evelyn N. Wang ,  John G. Brisson ,  Stuart A. Jacobson ,  Jeffrey H. Lang ,  Matthew McCarthy

Inventor： Evelyn N. Wang ,  John G. Brisson ,  Stuart A. Jacobson ,  Jeffrey H. Lang ,  Matthew McCarthy

IPC: F28D15/00 ,  F28F13/12

CPC classification number: F28D15/0266 ,  F28D15/0275 ,  F28D15/046 ,  F28F2250/08 ,  H01L23/427 ,  H01L23/467 ,  H01L2924/0002 ,  H01L2924/00

Abstract: Heat exchangers and related methods, e.g., methods of reducing heat from a load, are disclosed. In some embodiments, a device includes a stationary element defining a cavity, a movable element, and a first heat pipe in fluid communication with the cavity defined by the stationary element.

Abstract translation: 公开了热交换器和相关方法，例如减少来自负载的热量的方法。 在一些实施例中，装置包括限定空腔的固定元件，可移动元件和与由固定元件限定的空腔流体连通的第一热管。

公开(公告)号：US20110217692A1

公开(公告)日：2011-09-08

申请号：US13128365

申请日：2010-07-28

Applicant: Frederick M. Morgan ,  Stuart A. Jacobson ,  Johan van Walsem

Inventor： Frederick M. Morgan ,  Stuart A. Jacobson ,  Johan van Walsem

IPC: C12Q3/00 ,  C12M1/00

CPC classification number: C12M41/18 ,  C12M21/02 ,  C12M23/04 ,  C12M23/26 ,  C12M37/00

Abstract: The present invention provides photobioreactors, solar energy gathering systems, and methods for thermal control of a culture medium containing a prototrophic organism in a photobioreactor, that allow temperature control in a cost effective manner, reducing the energy required for temperature control of a culture medium containing phototrophic microorganisms in a photobioreactor.

Abstract translation: 本发明提供了光生物反应器，太阳能收集系统和用于热光控制含有光生物反应器中的原养生体的培养基的方法，其以成本有效的方式进行温度控制，降低了温度控制所需的能量，所述培养基含有 光生物反应器中的光养微生物。

公开(公告)号：US06392313B1

公开(公告)日：2002-05-21

申请号：US09354544

申请日：1999-07-15

Applicant: Alan H. Epstein ,  Stephen D. Senturia ,  Ian A. Waitz ,  Jeffrey H. Lang ,  Stuart A. Jacobson ,  Fredric F. Ehrich ,  Martin A. Schmidt ,  G. K. Ananthasuresh ,  Mark S. Spearing ,  Kenneth S. Breuer ,  Steven F. Nagle

Inventor： Alan H. Epstein ,  Stephen D. Senturia ,  Ian A. Waitz ,  Jeffrey H. Lang ,  Stuart A. Jacobson ,  Fredric F. Ehrich ,  Martin A. Schmidt ,  G. K. Ananthasuresh ,  Mark S. Spearing ,  Kenneth S. Breuer ,  Steven F. Nagle

IPC: H01L2984

CPC classification number: F23R3/42 ,  F01D5/28 ,  F01D15/06 ,  F01D25/20 ,  F01K13/00 ,  F02C3/05 ,  F02K9/48 ,  F05D2220/50 ,  F05D2230/14 ,  F05D2250/82 ,  F05D2250/84 ,  F05D2300/2261 ,  F05D2300/2283 ,  F05D2300/607 ,  F23C2900/03001

Abstract: The invention overcomes limitations of conventional power and thermodynamic sources by with micromachinery components that enable production of significant power and efficient operation of thermodynamic systems in the millimeter and micron regime to meet the efficiency, mobility, modularity, weight, and cost requirements of many modern applications. A micromachine of the invention has a rotor disk journalled for rotation in a stationary structure by a journal bearing. A plurality of radial flow rotor blades, substantially untapered in height, are disposed on a first rotor disk face, and an electrically conducting region is disposed on a rotor disk face. A plurality of stator electrodes that are electrically interconnected to define multiple electrical stator phases are disposed on a wall of the stationary structure located opposite the electrically conducting region of the rotor disk. A first orifice in the stationary structure provides fluidic communication with the first rotor disk face at a location radially central of the rotor blades, and a second orifice in the stationary structure provides fluidic communication with the first rotor disk face at a location radially peripheral of the rotor blades. An electrical connection to the stator electrode configuration is provided for stator electrode excitation and for power transfer with the stator electrode configuration as the rotor disk rotates.

Abstract translation: 本发明克服了常规功率和热力学源的限制，其中微机械组件能够在毫米和微米范围内产生显着功率和热力系统的有效运行，以满足许多现代应用的效率，移动性，模块化，重量和成本要求 。 本发明的微型机械具有转轴，该转子盘通过轴颈轴承在静止结构中旋转。 基本上没有高度的多个径流式转子叶片设置在第一转子盘面上，导电区域设置在转子盘面上。 电气互连以限定多个电定子相的多个定子电极设置在固定结构的与转子盘的导电区域相对的位置的壁上。 固定结构中的第一孔口在转子叶片的径向中心的位置处提供与第一转子盘面的流体连通，并且固定结构中的第二孔口在第一转子盘面的径向周边的位置处提供与第一转子盘面的流体连通 转子叶片。 提供与定子电极配置的电连接用于定子电极激励和用于当转子盘旋转时具有定子电极配置的功率传递。

公开(公告)号：US08678075B2

公开(公告)日：2014-03-25

申请号：US12628331

申请日：2009-12-01

Applicant: Evelyn N. Wang ,  John G. Brisson ,  Stuart A. Jacobson ,  Jeffrey H. Lang ,  Matthew McCarthy

Inventor： Evelyn N. Wang ,  John G. Brisson ,  Stuart A. Jacobson ,  Jeffrey H. Lang ,  Matthew McCarthy

IPC: H05K7/20 ,  F28F7/00 ,  F28D15/00 ,  H01L23/467

CPC classification number: F28D15/0266 ,  F28D15/0275 ,  F28D15/046 ,  F28F2250/08 ,  H01L23/427 ,  H01L23/467 ,  H01L2924/0002 ,  H01L2924/00

Abstract: Heat exchanger. The heat exchanger includes a thermal contact plate defining a cavity in fluid communication with a first pipe and a plurality of stationary elements substantially perpendicular to the first pipe each defining a cavity wherein each cavity is in fluid communication with the first pipe and at least one cavity includes a wick. A plurality of movable elements are provided wherein the movable elements and the stationary elements are substantially parallel, alternatingly arranged and a portion of the movable elements overlaps a portion of the stationary elements. A working fluid is provided in the first pipe and cavities or stationary elements and thermal contact plate.

Abstract translation: 热交换器。 热交换器包括热接触板，其限定与第一管流体连通的空腔和基本上垂直于第一管的多个静止元件，每个固定元件限定空腔，其中每个空腔与第一管流体连通并且至少一个空腔 包括一个灯芯。 提供了多个可移动元件，其中可移动元件和固定元件基本上平行，交替布置，并且可移动元件的一部分与固定元件的一部分重叠。 工作流体设置在第一管和空腔或固定元件和热接触板中。

公开(公告)号：US08304232B2

公开(公告)日：2012-11-06

申请号：US13128365

申请日：2010-07-28

Applicant: Frederick M. Morgan ,  Stuart A. Jacobson ,  Johan van Walsem

Inventor： Frederick M. Morgan ,  Stuart A. Jacobson ,  Johan van Walsem

IPC: A01G7/00 ,  A01G9/00 ,  A01H13/00 ,  C12P1/00 ,  C12N1/12 ,  C12M1/00 ,  C12M3/00

CPC classification number: C12M41/18 ,  C12M21/02 ,  C12M23/04 ,  C12M23/26 ,  C12M37/00

Abstract: The present invention provides photobioreactors, solar energy gathering systems, and methods for thermal control of a culture medium containing a prototrophic organism in a photobioreactor, that allow temperature control in a cost effective manner, reducing the energy required for temperature control of a culture medium containing phototrophic microorganisms in a photobioreactor.

Abstract translation: 本发明提供了光生物反应器，太阳能收集系统和用于热光控制含有光生物反应器中的原养生体的培养基的方法，其以成本有效的方式进行温度控制，降低了温度控制所需的能量，所述培养基含有 光生物反应器中的光养微生物。

公开(公告)号：US08304209B2

公开(公告)日：2012-11-06

申请号：US13061116

申请日：2009-12-11

Applicant: Johan van Walsem ,  Frederick Morgan ,  Stuart A. Jacobson ,  Rainer Ponzel ,  James R. McIntire ,  Scott A. Michonski ,  Andrew Posner

Inventor： Johan van Walsem ,  Frederick Morgan ,  Stuart A. Jacobson ,  Rainer Ponzel ,  James R. McIntire ,  Scott A. Michonski ,  Andrew Posner

IPC: C12P1/00

CPC classification number: C12M21/02 ,  C12M21/12 ,  C12M23/04 ,  C12M41/20 ,  C12N1/12 ,  C12N1/20 ,  C12N13/00 ,  C12P5/02 ,  C12P7/02 ,  C12P7/065 ,  C12P7/16 ,  C12P7/40 ,  C12P7/649 ,  Y02E50/10 ,  Y02E50/13 ,  Y02E50/17

Abstract: The invention described herein relates to photobioreactors, methods, assembly and use of such apparatus for culturing light-capturing organisms in a cost-effective manner. Various embodiments provide for a passive thermal regulation system employing selected microorganisms in a photobioreactor apparatus and methods for biological production of various fuel and chemical products from these organisms. Additional embodiments provide a solar biofactory system capable of culturing light capturing organisms to an areal productivity of 3.3 g/m2/hr. Further embodiments are directed to a photobioreactor capable of culturing light capturing organisms to an OD730 of about 14 g/L DCW. Such embodiments incorporate passive thermal regulation and systems.

Abstract translation: 本文描述的本发明涉及用于以成本有效的方式培养光捕获生物体的这种装置的光生物反应器，方法，组装和使用。 各种实施例提供了在光生物反应器装置中使用选定的微生物的被动热调节系统以及用于从这些生物体生物制备各种燃料和化学产品的方法。 另外的实施方案提供能够培养光捕获生物体至3.3g / m 2 / hr的面积生产率的太阳能生物质感系统。 其它实施方案涉及能够将光捕获生物培养至约14g / L DCW的OD730的光生物反应器。 这样的实施例包括无源热调节和系统。

公开(公告)号：US5932940A

公开(公告)日：1999-08-03

申请号：US749454

申请日：1996-11-15

Applicant: Alan H. Epstein ,  Stephen D. Senturia ,  Ian A. Waitz ,  Jeffrey H. Lang ,  Stuart A. Jacobson ,  Fredric F. Ehrich ,  Martin A. Schmidt ,  G. K. Ananthasuresh ,  Mark S. Spearing ,  Kenneth S. Breuer ,  Steven F. Nagle

Inventor： Alan H. Epstein ,  Stephen D. Senturia ,  Ian A. Waitz ,  Jeffrey H. Lang ,  Stuart A. Jacobson ,  Fredric F. Ehrich ,  Martin A. Schmidt ,  G. K. Ananthasuresh ,  Mark S. Spearing ,  Kenneth S. Breuer ,  Steven F. Nagle

IPC: F01D5/28 ,  F01D15/06 ,  F01D25/20 ,  F01K13/00 ,  F02C3/05 ,  F02K9/48 ,  F23R3/42 ,  H01L29/84 ,  F02C3/04 ,  H02K29/00

CPC classification number: F23R3/42 ,  F01D15/06 ,  F01D25/20 ,  F01D5/28 ,  F01K13/00 ,  F02C3/05 ,  F02K9/48 ,  F05D2220/50 ,  F05D2230/14 ,  F05D2250/82 ,  F05D2250/84 ,  F05D2300/2261 ,  F05D2300/2283 ,  F05D2300/607 ,  F23C2900/03001

Abstract: The invention provides a micro-gas turbine engine and associated microcomponentry. The engine components, including, e.g., a compressor, a diffuser having diffuser vanes, a combustion chamber, turbine guide vanes, and a turbine are each manufactured by, e.g., microfabrication techniques, of a structural material common to all of the elements, e.g., a microelectronic material such as silicon or silicon carbide. Vapor deposition techniques, as well as bulk wafer etching techniques, can be employed to produce the engine. The engine includes a rotor having a shaft with a substantially untapered compressor disk on a first end, defining a centrifugal compressor, and a substantially untapered turbine disk on the opposite end, defining a radial inflow turbine. The rotor is preferably formed of a material characterized by a strength-to-density ratio that enables a rotor speed of at least about 500,000 rotations per minute. An annular, axial-flow combustion chamber is provided that is located axially between the compressor and turbine disks and that has a ratio of annular height to axial length of at least about 0.5. The micro-gas turbine engine can be configured with an integral microgenerator as a source of electrical power, and can be employed for a wide range of power, propulsion, and thermodynamic cycle applications.

Abstract translation: 本发明提供了一种微型燃气涡轮发动机和相关的微型部件。 包括例如压缩机，具有扩散器叶片的扩散器，燃烧室，涡轮引导叶片和涡轮机的发动机部件各自通过例如微细加工技术制造所有元件共有的结构材料，例如 ，微电子材料如硅或碳化硅。 可以采用气相沉积技术以及体晶片蚀刻技术来生产发动机。 发动机包括具有轴的转子，该轴具有在第一端上具有基本上未经紧固的压缩机盘，限定离心式压缩机，以及在相对端上限定径向流入涡轮机的基本上未配套的涡轮盘。 转子优选由特征在于强度与密度之比的材料形成，其能够使转子速度为每分钟至少约50万转。 提供了一种环形的轴向流动燃烧室，其轴向位于压缩机和涡轮盘之间，并且具有至少约0.5的环形高度与轴向长度的比率。 微型燃气涡轮发动机可以配置有作为电力源的整体微型发电机，并且可以用于广泛的功率，推进和热力循环应用。

公开(公告)号：US20110151507A1

公开(公告)日：2011-06-23

申请号：US13061116

申请日：2009-12-11

Applicant: Johan van Walsem ,  Frederick Morgan ,  Stuart A. Jacobson ,  Rainer Ponzel ,  James R. Mclntire ,  Scott A. Michonski ,  Andrew Posner

Inventor： Johan van Walsem ,  Frederick Morgan ,  Stuart A. Jacobson ,  Rainer Ponzel ,  James R. Mclntire ,  Scott A. Michonski ,  Andrew Posner

IPC: C12P1/00

CPC classification number: C12M21/02 ,  C12M21/12 ,  C12M23/04 ,  C12M41/20 ,  C12N1/12 ,  C12N1/20 ,  C12N13/00 ,  C12P5/02 ,  C12P7/02 ,  C12P7/065 ,  C12P7/16 ,  C12P7/40 ,  C12P7/649 ,  Y02E50/10 ,  Y02E50/13 ,  Y02E50/17

Abstract: The invention described herein relates to photobioreactors, methods, assembly and use of such apparatus for culturing light-capturing organisms in a cost-effective manner. Various embodiments provide for a passive thermal regulation system employing selected microorganisms in a photobioreactor apparatus and methods for biological production of various fuel and chemical products from these organisms. Additional embodiments provide a solar biofactory system capable of culturing light capturing organisms to an areal productivity of 3.3 g/m2/hr. Further embodiments are directed to a photobioreactor capable of culturing light capturing organisms to an OD730 of about 14 g/L DCW. Such embodiments incorporate passive thermal regulation and systems.

Abstract translation: 本文描述的本发明涉及用于以成本有效的方式培养光捕获生物体的这种装置的光生物反应器，方法，组装和使用。 各种实施例提供了在光生物反应器装置中使用选定的微生物的被动热调节系统以及用于从这些生物体生物制备各种燃料和化学产品的方法。 另外的实施方案提供能够培养光捕获生物体至3.3g / m 2 / hr的面积生产率的太阳能生物质感系统。 其它实施方案涉及能够将光捕获生物培养至约14g / L DCW的OD730的光生物反应器。 这样的实施例包括无源热调节和系统。