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    TORQUE SENSOR
    54.
    发明申请
    TORQUE SENSOR 审中-公开

    公开(公告)号：US20180188126A1

    公开(公告)日：2018-07-05

    申请号：US15741248

    申请日：2016-07-13

    Applicant: Peng Cheng ,  Bengt Oelmann ,  Muhammad Nazar Ul Islam

    Inventor： Peng Cheng ,  Bengt Oelmann ,  Muhammad Nazar Ul Islam

    IPC: G01L3/04

    CPC classification number: G01L3/04 ,  G01L25/003

    Abstract: The torque sensor has a body. A first gastight chamber is defined at least partly by the body. A pressure sensor is connected with the gastight chamber for measuring the pressure in the gastight chamber. A pressure to torque converter is connected to the pressure sensor. The gastight chamber is arranged to change its volume by deformation of the body when the body is subjected to a torque wherein the volume change causes a change of pressure of the enclosed gas in the gastight chamber.

    DC-MOTOR
    55.
    发明申请
    DC-MOTOR 审中-公开

    公开(公告)号：US20180065221A1

    公开(公告)日：2018-03-08

    申请号：US15563328

    申请日：2016-03-31

    Applicant: Peng Cheng ,  Bengt Oelmann ,  Stefan Haller

    Inventor： Peng Cheng ,  Bengt Oelmann ,  Stefan Haller

    IPC: B23Q5/16 ,  H02K29/06 ,  H02K21/28 ,  H02K29/14 ,  H02P7/28

    CPC classification number: B23Q5/16 ,  H02K21/28 ,  H02K29/00 ,  H02K29/03 ,  H02K29/06 ,  H02K29/14 ,  H02P7/28

    Abstract: A variable-speed direct current motor comprising a stator (22), a rotor (23) arranged within the stator, and a motor drive device (40) arranged partly at the stator and partly at the rotor, wherein the stator comprises a yoke (25) defining a cylindrical cavity (31), and a plurality of permanent magnets (24) arranged at the yoke, wherein the rotor comprises a cylindrical core (26) and a conductor structure (47) arranged at the core, wherein the motor drive device comprises an alternating current transformer (41) having a primary winding (42) arranged at the stator and a secondary winding (43) arranged at the rotor, a rectifier device (44) arranged at the rotor and connected with the secondary winding, a direct current supply device (45) arranged at the rotor (23) and connected with the rectifier device (44), and with the conductor structure (47), and an operation control device (48) comprising a first unit (49) arranged at the rotor (23) and a second unit (50) arranged externally of the rotor and wirelessly communicating with the first unit.

    Hybrid thermoelectric-ejector cooling system
    57.
    发明授权
    Hybrid thermoelectric-ejector cooling system 有权
    混合热电喷射器冷却系统

    公开(公告)号：US08763408B2

    公开(公告)日：2014-07-01

    申请号：US12896597

    申请日：2010-10-01

    Applicant: Hongbin Ma ,  Peng Cheng ,  Joseph A. Boswell

    Inventor： Hongbin Ma ,  Peng Cheng ,  Joseph A. Boswell

    IPC: F25B21/02 ,  F28D15/00

    CPC classification number: F25B21/02 ,  F28D15/043

    Abstract: A hybrid thermoelectric-ejector active cooling system having an increased Coefficient of Performance (COP) when compared to typical thermoelectric cooling modules. A thermoelectric cooling module is integrated with an ejector cooling device so that heat from the thermoelectric cooling module is rejected to a high temperature evaporator of the ejector cooling device. This provides for a total COP greater than the sum of the COPs of the thermoelectric cooling module and ejector cooling device individually. For example, given 1 unit input power into the thermoelectric cooling module, the heat received by the cold side of the thermoelectric cooling module would be COPTEC×1; and the energy rejected by the hot side of the thermoelectric cooling module and to drive the ejector cooling device would be COPTEC+1. Thus, the cooling received by the low temperature evaporator of the ejector cooling device is COPEJ×(COPTEC+1); and therefore total COPTE-Ej-AC is COPEj+COPTEC+COPEj×COPTEC. In addition, the hybrid thermoelectric ejector active cooling system will be able to operate at higher temperature differentials than standalone thermoelectric cooling devices.

    Abstract translation: 与典型的热电冷却模块相比，具有增加的性能系数（COP）的混合热电喷射器主动冷却系统。 热电冷却模块与喷射器冷却装置集成，使得来自热电冷却模块的热量被排斥到喷射器冷却装置的高温蒸发器。 这提供了大于热电冷却模块和喷射器冷却装置的COP的总和的总COP。 例如，给热电冷却模块输入1个单位输入功率，热电冷却模块的冷端接收的热量为COPTEC×1; 并且由热电冷却模块的热侧拒绝并驱动喷射器冷却装置的能量将为COPTEC + 1。 因此，由喷射器冷却装置的低温蒸发器接收的冷却是COPEJ×（COPTEC + 1）; 因此总COPTE-Ej-AC为COPEj + COPTEC + COPEj×COPTEC。 此外，混合热电喷射器主动冷却系统将能够以比独立的热电冷却装置更高的温度差运行。

    UPLINK CHANNEL ESTIMATION FOR A SOFTWARE DEFINED RADIO
    58.
    发明申请
    UPLINK CHANNEL ESTIMATION FOR A SOFTWARE DEFINED RADIO 有权
    软件定义无线电的上行通道估计

    公开(公告)号：US20140169341A1

    公开(公告)日：2014-06-19

    申请号：US13825800

    申请日：2010-09-24

    Applicant: Senjie Zhang ,  Xuebin Yang ,  Guangjie Li ,  Peng Cheng

    Inventor： Senjie Zhang ,  Xuebin Yang ,  Guangjie Li ,  Peng Cheng

    IPC: H04B1/00

    CPC classification number: H04B1/0003 ,  H04L25/0204 ,  H04L25/0212 ,  H04L25/022 ,  H04L25/0232 ,  H04L25/0242

    Abstract: A system and method for uplink channel estimation for a software defined radio is disclosed. The method comprises dividing an allocated bandwidth for a received signal on the uplink channel into N segments. The uplink channel estimation is processed for each of the N segments as a separate process. The uplink channel estimation includes pre-processing each of the N segments of the received signal; Wiener filtering the pre-processed segments of the received signal in the frequency domain; and Wiener filtering each of the frequency filtered segments in the time domain to determine a channel estimate for each of the N segments for use in equalizing the received signal.

    Abstract translation: 公开了一种用于软件定义无线电的上行链路信道估计的系统和方法。 该方法包括将上行链路信道上的接收信号的分配带宽划分为N个段。 对于N个段中的每一个处理上行链路信道估计作为单独的处理。 上行链路信道估计包括预处理接收信号的N个段中的每一个; 维纳对频域中接收信号的预处理段进行滤波; 并且维纳滤波在时域中的每个频率滤波的段以确定用于均衡接收信号的N个段中的每一个的信道估计。

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