mhurhangee/ep-ind-claims huggingface dataset:
A multi-stage rotary vane pump, comprising at least two rotor elements (14, 38), each comprising sliding vanes displaceably arranged in slots, a rotor shaft carrying the rotor elements (14, 38), wherein the rotor elements (14, 38) and the rotor shaft are formed in one piece, a suction chamber (12, 68) for each rotor element (14, 38), wherein the rotor shaft is arranged eccentrically in the suction chambers (12, 68), and wherein respectively one suction chamber (12, 68) forms a pump stage, and a partition wall arranged between two pump stages for separating adjacent pump stages (12, 68), characterized in that the partition wall is of a multi-part design, particularly a two-part design, and comprises partition wall elements which are formed as ring segments, the suction chambers (12, 68) are formed by a common one-pieced housing element, and the one-pieced rotor with the at least one pre-installed partition wall is adapted to be inserted in axial direction into the housing element forming the suction chambers (12, 68). at least two rotor elements (14, 38), each comprising sliding vanes displaceably arranged in slots, a rotor shaft carrying the rotor elements (14, 38), wherein the rotor elements (14, 38) and the rotor shaft are formed in one piece, a suction chamber (12, 68) for each rotor element (14, 38), wherein the rotor shaft is arranged eccentrically in the suction chambers (12, 68), and wherein respectively one suction chamber (12, 68) forms a pump stage, and a partition wall arranged between two pump stages for separating adjacent pump stages (12, 68), characterized in that the partition wall is of a multi-part design, particularly a two-part design, and comprises partition wall elements which are formed as ring segments, the suction chambers (12, 68) are formed by a common one-pieced housing element, and the one-pieced rotor with the at least one pre-installed partition wall is adapted to be inserted in axial direction into the housing element forming the suction chambers (12, 68).
A picture processing method performed by a terminal characterized by comprising: recognizing a face in a picture of a user using a machine face recognition method; determining a personal identity data corresponding to the thus recognized face, the personal identity data comprising at least one of an identification of a person corresponding to the face and a relationship between the person corresponding to the face and the user; acquiring photograph information of the picture, the photograph information comprising at least one of a photograph time and a photograph location of the picture; generating description data of the picture according to the personal identity data, the photographing information and weather information for a day on which the picture is taken; grouping pictures of the user, wherein grouping pictures of the user comprises grouping the pictures according to at least one of the following factors: photograph times of the pictures, photograph locations of the pictures and faces in the pictures; and generating description data of each group of pictures according to description data of each picture in the group of pictures; wherein determining the personal identity data corresponding to the recognized face comprises: determining the personal identity data corresponding to the recognized face in the picture by virtue of head portraits of contacts in a contact list of the terminal. recognizing a face in a picture of a user using a machine face recognition method; determining a personal identity data corresponding to the thus recognized face, the personal identity data comprising at least one of an identification of a person corresponding to the face and a relationship between the person corresponding to the face and the user; acquiring photograph information of the picture, the photograph information comprising at least one of a photograph time and a photograph location of the picture; generating description data of the picture according to the personal identity data, the photographing information and weather information for a day on which the picture is taken; grouping pictures of the user, wherein grouping pictures of the user comprises grouping the pictures according to at least one of the following factors: photograph times of the pictures, photograph locations of the pictures and faces in the pictures; and generating description data of each group of pictures according to description data of each picture in the group of pictures; wherein determining the personal identity data corresponding to the recognized face comprises: determining the personal identity data corresponding to the recognized face in the picture by virtue of head portraits of contacts in a contact list of the terminal.
An apparatus comprising: a wireless communication unit to perform the functionality of a first station, STA to communicate with a second STA, said wireless communication unit is to communicate a Time-of-Flight, ToF, frame between the first STA and the STA, the ToF frame comprising filter information including Transmit, Tx filter information, characterised by: said Tx filter information representing one or more Tx filter coefficients of one or more Tx filters utilized by at least one STA selected from the group consisting of said first STA and said second STA. a wireless communication unit to perform the functionality of a first station, STA to communicate with a second STA, said wireless communication unit is to communicate a Time-of-Flight, ToF, frame between the first STA and the STA, the ToF frame comprising filter information including Transmit, Tx filter information, characterised by: said Tx filter information representing one or more Tx filter coefficients of one or more Tx filters utilized by at least one STA selected from the group consisting of said first STA and said second STA. said Tx filter information representing one or more Tx filter coefficients of one or more Tx filters utilized by at least one STA selected from the group consisting of said first STA and said second STA.
An extract derived from sugar cane having GI or burn rate reducing characteristics wherein the extract is a syrup which comprises 3.5 to 6 g CE/I of one or more polyphenols, 80 to 220 g/l of one or more carbohydrates, 3 to 5.5 g/l of one or more minerals and 3 to 6 g/l of one or more organic acids.
A loading unit configured for engagement with a surgical instrument, the loading unit comprising: a proximal body portion configured to be releasably attached to an elongated portion of said surgical instrument; an end effector disposed in mechanical cooperation with the proximal body portion, the end effector including an anvil assembly and a cartridge assembly, at least one of the anvil assembly and the cartridge assembly being movable with respect to the other of the anvil assembly and the cartridge assembly between an open position and an approximated position, the anvil assembly includes a tissue contacting surface, and the second jaw member also includes a tissue contacting surface and characterised by a first imaging device, a second imaging device and a third imaging device, each imaging device (800d, 802d, 804d) being disposed on the anvil assembly and generally facing the cartridge assembly. a proximal body portion configured to be releasably attached to an elongated portion of said surgical instrument; an end effector disposed in mechanical cooperation with the proximal body portion, the end effector including an anvil assembly and a cartridge assembly, at least one of the anvil assembly and the cartridge assembly being movable with respect to the other of the anvil assembly and the cartridge assembly between an open position and an approximated position, the anvil assembly includes a tissue contacting surface, and the second jaw member also includes a tissue contacting surface and characterised by a first imaging device, a second imaging device and a third imaging device, each imaging device (800d, 802d, 804d) being disposed on the anvil assembly and generally facing the cartridge assembly.
A cylindrical secondary battery comprising: a wound electrode assembly formed by winding a positive electrode having a positive electrode active material layer disposed on a positive electrode current collector, a negative electrode having a negative electrode active material layer disposed on a negative electrode current collector, and a separator interposed between the positive electrode and the negative electrode; a positive electrode tab connected to the positive electrode; a cylindrical case body that houses the electrode assembly and the positive electrode tab; and a sealing assembly that seals an opening of the case body, wherein the negative electrode has, at a winding end of the negative electrode, an exposed portion of the negative electrode current collector in which no negative electrode active material layer is disposed, and the exposed portion of the negative electrode current collector is disposed in contact with an inner surface of the case body, the electrode assembly has a region A in which the number of layers of the positive electrode in a radial direction is smaller than in another region of the electrode assembly, on a winding cross-section of the electrode assembly, and the positive electrode tab is disposed at a longitudinal center of the positive electrode and disposed in the region A. a wound electrode assembly formed by winding a positive electrode having a positive electrode active material layer disposed on a positive electrode current collector, a negative electrode having a negative electrode active material layer disposed on a negative electrode current collector, and a separator interposed between the positive electrode and the negative electrode; a positive electrode tab connected to the positive electrode; a cylindrical case body that houses the electrode assembly and the positive electrode tab; and a sealing assembly that seals an opening of the case body, wherein the negative electrode has, at a winding end of the negative electrode, an exposed portion of the negative electrode current collector in which no negative electrode active material layer is disposed, and the exposed portion of the negative electrode current collector is disposed in contact with an inner surface of the case body, the electrode assembly has a region A in which the number of layers of the positive electrode in a radial direction is smaller than in another region of the electrode assembly, on a winding cross-section of the electrode assembly, and the positive electrode tab is disposed at a longitudinal center of the positive electrode and disposed in the region A.
Induction cookware for an induction cooking system that has an induction hob, the cookware comprising an induction coil for inductive coupling to an inductive heating coil of the induction hob for the purpose of providing an electrical voltage in the induction cookware, a temperature sensor for detecting a temperature of the induction cookware, and a controller for evaluating output signals from the temperature sensor, the controller being connected to the temperature sensor in a signal-transmitting manner, characterised in that the induction coil is designed as the temperature sensor and the induction coil can be controlled by the controller by means of a DC measurement voltage for the purpose of detecting the temperature of the induction cookware.
An ultrasonic inspection probe comprising: a flexible ultrasonic array; and, a chassis arranged to hold the ultrasonic array in a predetermined position relative to a workpiece, the chassis having a workpiece facing surface and a chassis loading surface opposite thereto, the ultrasonic array disposed between the workpiece facing surface and the chassis loading surface; wherein the chassis comprises a first component defining the workpiece facing surface and a second component defining the chassis loading surface, the first and second components being releasably attached for insertion and removal of the ultrasonic array therebetween, wherein the workpiece facing surface and the first and second components are at least partially curved, wherein the first and second components clamp the ultrasonic array therebetween, and wherein the chassis defines an aperture in the workpiece facing surface to provide a clear line of sight from the array to the workpiece. a flexible ultrasonic array; and, a chassis arranged to hold the ultrasonic array in a predetermined position relative to a workpiece, the chassis having a workpiece facing surface and a chassis loading surface opposite thereto, the ultrasonic array disposed between the workpiece facing surface and the chassis loading surface; wherein the chassis comprises a first component defining the workpiece facing surface and a second component defining the chassis loading surface, the first and second components being releasably attached for insertion and removal of the ultrasonic array therebetween, wherein the workpiece facing surface and the first and second components are at least partially curved, wherein the first and second components clamp the ultrasonic array therebetween, and wherein the chassis defines an aperture in the workpiece facing surface to provide a clear line of sight from the array to the workpiece.
A door assembly for a vehicle, the door assembly comprising: a window; a lower door assembly body; an upper door frame fixedly attached to the lower door assembly body and surrounding the window, the upper door frame having a recessed portion in an inner panel of the upper door frame; and an user capture device (107, 127) housed in the recessed portion in the inner panel of the upper door frame facing an exterior of the vehicle for the purposes of identification or authentication. a window; a lower door assembly body; an upper door frame fixedly attached to the lower door assembly body and surrounding the window, the upper door frame having a recessed portion in an inner panel of the upper door frame; and an user capture device (107, 127) housed in the recessed portion in the inner panel of the upper door frame facing an exterior of the vehicle for the purposes of identification or authentication.
A gas mixer for a gaseous fuel internal combustion engine for mixing gaseous fuel and air, comprising: a guiding channel extending along a central longitudinal axis between an inlet for air inlet and an outlet for air fuel mixture, the guiding channel comprising a gaseous fuel supply opening and an inner channel wall being n-fold rational symmetric around the central longitudinal axis, except for the presence of the gaseous fuel supply opening; and a displacement body comprising a gaseous fuel inlet and gaseous fuel outlets (76, 84) and arranged within the guiding channel, the displacement body being n-fold rotational symmetric and rotationally displaceable around the central longitudinal axis, except for the presence of the gaseous fuel inlet, wherein n is an integer greater than 1, and wherein the displacement body and the inner channel wall define an air passage therebetween, the air passage having a cross section area in a plane perpendicular to the central longitudinal axis, and a rotational displacement of the displacement body varies the cross section area of the air passage. a guiding channel extending along a central longitudinal axis between an inlet for air inlet and an outlet for air fuel mixture, the guiding channel comprising a gaseous fuel supply opening and an inner channel wall being n-fold rational symmetric around the central longitudinal axis, except for the presence of the gaseous fuel supply opening; and a displacement body comprising a gaseous fuel inlet and gaseous fuel outlets (76, 84) and arranged within the guiding channel, the displacement body being n-fold rotational symmetric and rotationally displaceable around the central longitudinal axis, except for the presence of the gaseous fuel inlet, wherein n is an integer greater than 1, and wherein the displacement body and the inner channel wall define an air passage therebetween, the air passage having a cross section area in a plane perpendicular to the central longitudinal axis, and a rotational displacement of the displacement body varies the cross section area of the air passage.
A semiconductor laser device (100, 200) comprising: a semiconductor laser element, a mounting body having the semiconductor laser element mounted thereon, and a base body connected to the mounting body; wherein the base body comprises a recess, wherein the mounting body is engaged with the recess, a through portion penetrates through the base body at a part of the lower surface of the recess, and a remainder of the base body at the recess which is arranged under the lowermost surface of the mounting body has a thickness of half or less than the maximum thickness of the base body, the lowermost surface of the mounting body is spaced apart from the lowermost surface of the base body through the remainder of the base body at the recess, and characterised in that the mounting body includes copper as its main component. a semiconductor laser element, a mounting body having the semiconductor laser element mounted thereon, and a base body connected to the mounting body; wherein the base body comprises a recess, wherein the mounting body is engaged with the recess, a through portion penetrates through the base body at a part of the lower surface of the recess, and a remainder of the base body at the recess which is arranged under the lowermost surface of the mounting body has a thickness of half or less than the maximum thickness of the base body, the lowermost surface of the mounting body is spaced apart from the lowermost surface of the base body through the remainder of the base body at the recess, and characterised in that the mounting body includes copper as its main component.
A semiconductor device (A1, A2, A3) comprising: a first semiconductor layer having a first conductivity type (n) and made of silicon carbide; a second semiconductor layer made of silicon carbide, provided on the first semiconductor layer and having a second conductivity type (p) opposite to the first conductivity type (n); a semiconductor region made of silicon carbide, having the first conductivity type (n) and formed on the second semiconductor layer; a trench penetrating through the semiconductor region and the second semiconductor layer to reach the first semiconductor layer; an insulating layer formed at a bottom and a side of the trench along an inner surface of the trench; and a gate electrode insulated by the insulating layer from the first semiconductor layer, the second semiconductor layer and the semiconductor region, at least part of the gate electrode being formed inside the trench; wherein the second semiconductor layer includes a channel region that is along the trench and in contact with the first semiconductor layer at a first end and the semiconductor region at a second end opposite to the first end, a size of the channel region in a depth direction of the trench is 0.1 to 0.5 μm, a peak impurity concentration along a depth of the channel region is in a range of 4×10 17 cm -3 to 2×10 18 cm -3, an impurity concentration of the second semiconductor layer initially increases starting from the second end, reaches a maximum at a predetermined depth and decreases, as proceeding from the semiconductor region toward the first semiconductor layer in the depth direction of the trench. a first semiconductor layer having a first conductivity type (n) and made of silicon carbide; a second semiconductor layer made of silicon carbide, provided on the first semiconductor layer and having a second conductivity type (p) opposite to the first conductivity type (n); a semiconductor region made of silicon carbide, having the first conductivity type (n) and formed on the second semiconductor layer; a trench penetrating through the semiconductor region and the second semiconductor layer to reach the first semiconductor layer; an insulating layer formed at a bottom and a side of the trench along an inner surface of the trench; and a gate electrode insulated by the insulating layer from the first semiconductor layer, the second semiconductor layer and the semiconductor region, at least part of the gate electrode being formed inside the trench; wherein the second semiconductor layer includes a channel region that is along the trench and in contact with the first semiconductor layer at a first end and the semiconductor region at a second end opposite to the first end, a size of the channel region in a depth direction of the trench is 0.1 to 0.5 μm, a peak impurity concentration along a depth of the channel region is in a range of 4×10 17 cm -3 to 2×10 18 cm -3, an impurity concentration of the second semiconductor layer initially increases starting from the second end, reaches a maximum at a predetermined depth and decreases, as proceeding from the semiconductor region toward the first semiconductor layer in the depth direction of the trench.
A mobility management method performed by a user equipment, UE, wherein the method comprises: receiving, by user equipment, UE, from a first base station, a message used for indicating a primary cell, PCell, change, wherein the first base station is a base station that a source PCell of the UE belongs to, and the message used for indicating a PCell change carries information about a target PCell; performing, by the UE, a PCell change based on the received message used for indicating a PCell change, wherein the PCell change comprises: changing the target PCell to a PCell of the UE and changing the source PCell to a secondary cell, SCell, that is in an active state and that is of the UE, and during the PCell change, the UE continues to perform data transmission with the source PCell and the target PCell; and sending, by the UE, a message used for indicating PCell change completion to the first base station or a second base station, wherein the second base station is a base station that the target PCell belongs to; wherein after the receiving a message used for indicating a PCell change, the PCell change further comprises: determining, by the UE, that the target PCell is not a serving cell of the UE; adding, by the UE, the target PCell as an SCell of the UE; and after the adding the target PCell as an SCell: performing, by the UE, the PCell change, wherein the PCell change comprises: changing the target PCell to the PCell of the UE and changing the source PCell to the SCell that is in the active state and that is of the UE. receiving, by user equipment, UE, from a first base station, a message used for indicating a primary cell, PCell, change, wherein the first base station is a base station that a source PCell of the UE belongs to, and the message used for indicating a PCell change carries information about a target PCell; performing, by the UE, a PCell change based on the received message used for indicating a PCell change, wherein the PCell change comprises: changing the target PCell to a PCell of the UE and changing the source PCell to a secondary cell, SCell, that is in an active state and that is of the UE, and during the PCell change, the UE continues to perform data transmission with the source PCell and the target PCell; and sending, by the UE, a message used for indicating PCell change completion to the first base station or a second base station, wherein the second base station is a base station that the target PCell belongs to; wherein after the receiving a message used for indicating a PCell change, the PCell change further comprises: determining, by the UE, that the target PCell is not a serving cell of the UE; adding, by the UE, the target PCell as an SCell of the UE; and after the adding the target PCell as an SCell: determining, by the UE, that the target PCell is not a serving cell of the UE; adding, by the UE, the target PCell as an SCell of the UE; and after the adding the target PCell as an SCell: performing, by the UE, the PCell change, wherein the PCell change comprises: changing the target PCell to the PCell of the UE and changing the source PCell to the SCell that is in the active state and that is of the UE.