Gm Global Technolgoy Operations, Inc.

Zimmer Gmbh

Shanghai Jiaotong University

Zimmer Orthobiologics, Inc.

Shanghai Junshi Biosciences Co., Ltd.

Junmeng Biosciences Co., Ltd.

Suzhou Junmeng Biosciences Co., Ltd.

Shanghai Junshi Biosciences Inc.

Junshi Biosciences Co., Ltd.

Jian Yao

Chengwu Duan

Chunhao J Lee

Yusheng Zou

Farzad Samie

Zhen Gao

Hali Wang

Alireza Fatemi

Chi-Kuan Kao

Lei Hao

Li Chen

Hui Feng

Hai Wu

Sheng Yao

Chengliang Yin

Alan G Holmes

Dongxu Li

Derek F Lahr

Lei Li

SeungHwan Keum

John Chernosky

Keith A Roby

Ray Zubok

Timothy A Hoeman

Mingyuan Zhang

Tao Jiang

Dan Meng

Denghao Fan

Norman K Bucknor

Anil Kumar Sachdev

Thomas W Nehl

Ming Liu

Yu Dong

Victor Zaporojan

Vincent Fedida

Yuehua Zhou

Chandra S Namuduri

Madhusudan Raghavan

Ming Yang

Paul Edward Krajewski

Kai Chen

John Stilianos Agapiou

Jing Jing Zhang

Anthony M Coppola

Cheryl Renee Blanchard

Chih-Hung Yen

Dewen Kong

Wen-Chiao Lin

Neeraj S Shidore

Robert C Spiro

Qiangfeng Xiao

Jing Zhang

Peggy Wang

Neil Kizer

Jingyan Wan

Bin Zhu

Hui Liu

Jingyuan Liu

David Sun

Mohammad Hotait

Jim Liu

Libo Zhang

Claus Juergen Glahn

Jie Shu

Hai-Qing Xian

Hongchuan Liu

Zhao Ding

Rodney E Bristol

An axial flux motor may include a stator, a rotor including a rotor frame and having a rotational axis, an axial air gap separating the stator and the rotor, the axial air gap corresponding to an axial position of the rotor frame, and at least one hydraulic actuator including a variable volume hydraulic fluid chamber defined within the rotor frame, wherein a change in the volume of the variable volume hydraulic fluid chamber causes a change in the axial position of the rotor frame and a corresponding change in the axial air gap separating the stator and the rotor.

Adjustable air gap axial flux motor

A cooling system includes a housing configured to enclose an electric vehicle component immersed in cooling fluid and to define a first volume. A variable volume member defines a second volume that varies in response to a first signal. A combined volume is defined by the first volume and the second volume. Heat causes the cooling fluid to transition between a liquid state and a vapor state in the combined volume. A pressure sensor is configured to sense a pressure in the combined volume. A condenser is configured to cause the cooling fluid to transition from the vapor state back to the liquid state. A controller includes a volume adjustment module configured to generate the first signal to vary the second volume of the variable volume member to adjust the combined volume in response to the pressure and a first temperature of the electric vehicle component.

Active and passive heat flux control systems for two-phase immersive cooling for high power density electric vehicle components

An axial flux motor assembly is disclosed and includes: an axial flux motor comprising a rotor, and a first stator; and a power inverter assembly. The power module assembly includes: a printed circuit board; a control module mounted on the printed circuit board; power module assemblies connected to the printed circuit board and controlled by the control module; and a cold plate. The cold plate is disposed between the first stator and the power module assemblies and includes a first side and a second side, which is opposite the first side. The cold plate cools the power module assemblies via the first side and the first stator via the second side.

Axial flux motor assemblies with integrated power electronics and double-sided cooling

An example rotor includes a rotor yoke having an outer circumference and an inner circumference. The rotor further includes a plurality of rotor ribs on a surface the rotor yoke and extending between the outer circumference and the inner circumference. The rotor further includes a plurality of magnets, each of the plurality of magnets being disposed adjacent to and between two of the plurality of rotor ribs.

Rotors for electric motors

An axial flux motor includes: a ring-shaped stator, a ring-shaped rotor and a planetary gear set. The ring-shaped stator includes a stator core and segments arranged on the stator core, where each of the segments includes a laminated stack and windings wrapped around the laminated stack. The ring-shaped rotor defines an inner open area and including a body and permanent magnets arranged on the body adjacent to and spaced from the segments. The planetary gear set is disposed within the inner open area and configured to receive an input torque from the rotor and provide an output torque, which is greater than the input torque.

Integrated axial flux motor assemblies including planetary gearsets

An electric machine includes a housing having an inner surface; and a stator including a stator core mounted in the housing. The stator core includes a plurality of stator windings, a thermal bridge extends between the stator core and the inner surface of the housing. The thermal bridge is formed from a non-magnetic material and includes a plurality of individual thermal bridge elements.

Thermal bridge for an electric machine

An axial flux electric motor includes a stator including a stator segment having a support frame formed with an opening defined by a continuous edge. A stator winding segment is arranged in the opening of the stator segment. The stator winding segment has an outer surface. A thermal interface material (TIM) is disposed between the outer surface of the stator winding segment and the continuous edge defining the opening in the support frame.

Stator segment thermal bridging system for an axial flux motor

An axial flux electric machine includes a casing, stator cores, windings, and fins. The casing has a hollow cylindrical shape with an inner radial surface and an outer radial surface. The stator cores are spaced circumferentially along the inner radial surface of the casing. The windings are wrapped around the stator cores. The fins project from the inner radial surface of the casing to spaces between the windings.

Axial flux electric machine including cooling fins projecting from casing to spaces between windings on stator cores

An axial flux electric motor includes a housing including an inner surface and a stator fixedly mounted in the housing. The stator includes a plurality of stator segments each supporting a winding, an inner support member defining a central passage, and an outer annular member constraining the plurality of stator segments. The outer annular member includes an outer surface portion abutting the inner surface of the housing. A thermal connection system is disposed between the outer surface portion of the outer annular member and the inner surface. The thermal connection system transfers heat from the stator into the housing.

Thermal connection system for a stator core of an axial flux electric motor

The present invention provides an antibody or a functional fragment thereof that specifically binds to IL-17A with high affinity. Also provided are a nucleic acid molecule encoding the antibody or the functional fragment thereof disclosed herein, an expression vector and a host cell for expressing the antibody or the functional fragment thereof disclosed herein, and a method for preparing the antibody or the functional fragment thereof disclosed herein. The present invention also provides a pharmaceutical composition comprising the antibody or the functional fragment thereof disclosed herein, and use of the antibody or the functional fragment thereof disclosed herein for treating an immune dysfunction disease.

Anti-IL-17A antibody and use thereof

An axial flux motor includes: a stator having a first side and a second side opposite the first side, the stator including: N stator core components on the first side, where N is an integer greater than two; N stator windings that are disposed around the N stator core components, respectively, where each of the N stator windings includes, from a point of view facing the first side: a first width at a first location; and a second width that is greater than the first width at a second location that is radially outward from the first location relative to an axis; slot openings disposed between adjacent ones of the stator windings; and a rotor including a third side and M permanent magnets on the third side, where the first side is parallel to the third side, and where M is an integer greater than or equal to two.

Stator windings with variable cross-section for geometry optimization and direct cooling

The present invention relates to an anti-BTLA antibody or an antigen-binding fragment thereof comprising: at least one light chain CDR domain selected from SEQ ID NOs: 7, 8, 9, 10, 11, 12, 16, 17, 18, 22, 23, 24, 31, 32 and 33, and/or at least one heavy chain CDR domain selected from SEQ ID NOs: 1, 2, 3, 4, 5, 6, 13, 14, 15, 19, 20, 21, 25, 26, 27, 28, 29 and 30. The present invention also relates to a nucleic acid molecule encoding the antibody or the antigen-binding fragment thereof, a corresponding expression vector and a host cell, as well as therapeutic use of the antibody or the antigen-binding fragment thereof, the nucleic acid molecule, the expression vector and the host cell.

Anti-BTLA antibody

A mixed chemistry battery is provided. The mixed chemistry battery includes a reference module having a first chemistry and a battery module having a second chemistry that is different that the first chemistry, the battery module is connected to the reference module in series. The mixed chemistry battery also includes a battery monitoring system configured to monitor an open circuit voltage of the reference module, an open circuit voltage of the battery module, and a current flow through the reference module and the battery module. The battery monitoring system is further configured to calculate a state-of-charge (SOC) and state-of-health (SOH) of the battery module based at least in part on a SOC of the reference module.

State of charge and state of health assessment of a mixed chemistry battery

A bi-material permanent magnet for an electric machine includes a core including a first magnetic material and a shell portion located on the core and made of a second magnetic material. The first magnetic material comprises a magnet material with an energy less than 20 Mega Gauss Oersteds (MGOe). The second magnetic material comprises a magnet material with an energy greater than 30 MGOe.

Bi-material permanent magnets for electric machines

A stator assembly for an axial flux motor includes a heat exchanger jacket configured to circulate a heat transfer liquid. A stator also includes a plurality of stator cores each having a conductive winding, an electrically insulating material disposed over at least a portion of the conductive wire winding, and a molded soft magnetic composite (SMC) material. The heat exchanger jacket is disposed circumferentially around at least a portion of a perimeter of the stator. Each stator core defines a peripheral surface configured to contact the heat exchanger jacket and at least a portion of the peripheral surface is defined by the molded soft magnetic composite (SMC) material. Methods of making a molded soft magnetic composite (SMC) material stator core are also provided.

Direct contact cooling of axial flux motor stator

Growing community of inventors

Shanghai, China

Jian Yao