mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling body with closure plates for a primary part of a linear motor, which comprises a coil assembly (S) with at least one coil to be energized in operation of the motor, wherein the cooling body is delimited by a circumferential outer edge that extends along a plane defined by a plate-shaped cooling region of the cooling body , wherein the cooling body is configured to receive the coil assembly (S) of the primary part and wherein the cooling body is configured as an integrally formed component in which a coolant is disposed and in which channels for the coolant extend, which serve to conduct a coolant introduced into the cooling body along the coil assembly (S), wherein a circumferential fastening portion extending along the outer edge is integrally molded to the cooling body , characterized in that the fastening portion defines two bearing regions facing away from each other for applying one closure plate each, which are each formed by a step of a stepped end region of the fastening portion , in such a way that when a closure plate is properly arranged on the respective bearing region of the fastening portion , a space delimited by the cooling body and the closure plates is formed, in which the coil assembly (S) is to be received, wherein the closure plates not only rest against the respectively associated bearing surface , but also are supported laterally at the transition to the next step of the fastening portion , and wherein the closure plates are cohesively attached to the respective bearing region of the fastening portion so that the cooling body and the closure plates form a gas-tightly sealed space for receiving the coil assembly (S), in which the coil assembly (S) is insulated from the environment and no outgassings can get into the environment.
Method of producing a timepiece component comprising a structure (1; 38) and at least one element (3; 42) formed in or at the periphery of the structure in a material different to that of the structure, said method comprising the following successive steps: - producing the structure (1; 38), said structure comprising at least one cavity intended to receive said element (3; 42) - producing a support comprising at least one conductive metal layer , - temporarily joining the structure (1; 38) and the support , - forming said element (3; 42) by depositing said material in said cavity by galvanic growth from the conductive metal layer of the support , - separating the structure (1; 38) from its support , and - making the element (3; 42) level with respect to the structure (1; 38), said method being characterised in that the step of producing the support comprises, before the joining step, forming, on the face of the support intended to be joined to the structure (1; 38), at least one controlled zone arranged in order, during the joining, to come to face at least the cavity of the structure (1; 38) and in order to enable the conductive metal layer to be able to appear so as to form, with said cavity , a mould intended to form said element (3; 42). - producing the structure (1; 38), said structure comprising at least one cavity intended to receive said element (3; 42) - producing a support comprising at least one conductive metal layer , - temporarily joining the structure (1; 38) and the support , - forming said element (3; 42) by depositing said material in said cavity by galvanic growth from the conductive metal layer of the support , - separating the structure (1; 38) from its support , and - making the element (3; 42) level with respect to the structure (1; 38),
Field frame for a rotary electric machine comprising a bottom plate intended to support a stator and side plates which are parallel to one another in pairs, the field frame comprising an open face opposite the bottom plate and crossmembers extending across the bottom plate and across the side plates so that each crossmember conforms to the shape of a stator clamp plate, each crossmember comprising at least one bearing surface parallel to the bottom plate and intended to support support bars incorporated into the stator so as to prevent rotation of the stator when the rotary electric machine is developing torque, characterized in that the side plates comprise openings so that means for fixing the stator in the field frame can be fixed to the bearing surfaces .
A signal processing device comprising: a time series information acquiring unit configured to acquire a moving image of a user captured by a camera ; a feature value extraction unit configured to extract a first time series information from the moving image; a recognition unit configured to identify a type of operation based on the first time series information and based on a recognition condition; a detecting unit configured to retrieve a second time series information prior to the point in time of the first time series information from the moving image, if the type of operation has been identified by the recognition unit , the second time series information being similar to the first time series information; a parameter changing unit configured to change the recognition condition so that the second time series information will be identified as the type of operation in future time series; and an operation executing unit configured to perform an operation based on the result determined by the recognition unit . a time series information acquiring unit configured to acquire a moving image of a user captured by a camera ; a feature value extraction unit configured to extract a first time series information from the moving image; a recognition unit configured to identify a type of operation based on the first time series information and based on a recognition condition; a detecting unit configured to retrieve a second time series information prior to the point in time of the first time series information from the moving image, if the type of operation has been identified by the recognition unit , the second time series information being similar to the first time series information; a parameter changing unit configured to change the recognition condition so that the second time series information will be identified as the type of operation in future time series; and an operation executing unit configured to perform an operation based on the result determined by the recognition unit .
Method, comprising: forming at least one trench in non-device regions of a first surface of a semiconductor wafer, the non-device regions being arranged between component positions , the component positions comprising device regions and a first metallization structure ; applying a first polymer layer to the first surface of a semiconductor wafer such that the trenches and edge regions of the component positions are covered with the first polymer layer and such that at least a portion of the first metallization structure is uncovered by the first polymer layer ; removing portions of a second surface of the semiconductor wafer, the second surface opposing the first surface , revealing portions of the first polymer layer in the non-device regions and producing a worked second surface ; applying a second metallization structure to the worked second surface , removing portions of the second metallization structure from the first polymer layer arranged in the non-device regions and producing discrete conductive portions in the device regions on the worked second surface , removing a portion of the first polymer layer , arranged in the non-device regions , inserting a separation line through the first polymer layer in the non-device regions to form a plurality of separate semiconductor dies. forming at least one trench in non-device regions of a first surface of a semiconductor wafer, the non-device regions being arranged between component positions , the component positions comprising device regions and a first metallization structure ; applying a first polymer layer to the first surface of a semiconductor wafer such that the trenches and edge regions of the component positions are covered with the first polymer layer and such that at least a portion of the first metallization structure is uncovered by the first polymer layer ; removing portions of a second surface of the semiconductor wafer, the second surface opposing the first surface , revealing portions of the first polymer layer in the non-device regions and producing a worked second surface ; applying a second metallization structure to the worked second surface , removing portions of the second metallization structure from the first polymer layer arranged in the non-device regions and producing discrete conductive portions in the device regions on the worked second surface , removing a portion of the first polymer layer , arranged in the non-device regions , inserting a separation line through the first polymer layer in the non-device regions to form a plurality of separate semiconductor dies.
A method for classifying and storing keys in a train control system, the method comprising: monitoring an access message sent by a new device that initially accessed a network; determining a device type of the new device based on the access message, and generating a device identifier for the new device according to the device type, wherein the device type includes a ground device and an onboard device; when the device type is a ground device, generating a ground device key of the new device according to a uniform root key of a ground area where the new device is located and the device identifier, and storing the ground device key into a ground device key file; when the device type is an onboard device, generating an onboard device key of the new device according to the device identifier of the new device, and storing the onboard device key into an onboard device key file; and separately storing the ground device key file and the onboard device key file into a secure storage device. monitoring an access message sent by a new device that initially accessed a network; determining a device type of the new device based on the access message, and generating a device identifier for the new device according to the device type, wherein the device type includes a ground device and an onboard device; when the device type is a ground device, generating a ground device key of the new device according to a uniform root key of a ground area where the new device is located and the device identifier, and storing the ground device key into a ground device key file; when the device type is an onboard device, generating an onboard device key of the new device according to the device identifier of the new device, and storing the onboard device key into an onboard device key file; and separately storing the ground device key file and the onboard device key file into a secure storage device.
Transport vehicle for aircraft, in particular fixed wing and helicopters, which comprise a single steerable wheel arranged in the middle related to the width of the aircraft, as well as main undercarriage wheels arranged parallel to one another and at the sides away from the centre, wherein the transport vehicle is provided in turn with support load-bearing wheels and a drive unit , and a holding device for the steerable wheel of the aircraft, which is capable of raising this wheel from the ground surface, wherein the transport vehicle has a longitudinal configuration, wherein the holding device for the steerable wheel of the aircraft in the region of one end, related to the width of the transport vehicle , is arranged in the middle, and in the region of the other end comprises two holding devices , arranged parallel to one another and at the sides away from the centre, for the main undercarriage wheels of the aircraft, which are capable of lifting these main undercarriage wheels from the ground surface, wherein, arranged in the region of one end is a front support load-bearing wheel , capable of pivoting about a vertical axis of rotation, and in the region of the other end are arranged two rear support load-bearing wheels , arranged parallel to one another and in each case to the sides and away from the centre, and in each case capable of pivoting about a vertical axis of rotation, and wherein the drive unit is arranged in the region of the other end of the transport vehicle between the two rear support load-bearing wheels , wherein two drive wheels , capable of being driven independently of one another, are arranged in a cage holding element capable of pivoting about a vertical axis of rotation, with axes of rotation flush to one another and which intersect the axis of rotation of the cage holding element at a point of intersection, and wherein this point of intersection lies between the drive wheels , wherein the cage holding element is in turn assigned to a rotation drive unit , by means of which the alignment of the cage holding element can be changed in relation to the longitudinal configuration of the transport device .
A method, comprising: detecting sound via individual microphones of a network microphone device, NMD ; selecting a first voice assistant service, VAS, to communicate with the NMD ; producing a first sound-data stream based on the detected sound using a spatial processor of the NMD , wherein the spatial processor operates according to a first configuration when the first VAS is selected; determining that a second VAS is to be selected over the first VAS based on the detected sound; selecting the second VAS to communicate with the NMD and forgoing the selection of the first VAS; producing a second sound-data stream based on the detected sound using the spatial processor , wherein the spatial processor operates according to a second configuration when the second VAS is selected; and transmitting the second sound-data stream to a remote computing device associated with the second VAS. detecting sound via individual microphones of a network microphone device, NMD ; selecting a first voice assistant service, VAS, to communicate with the NMD ; producing a first sound-data stream based on the detected sound using a spatial processor of the NMD , wherein the spatial processor operates according to a first configuration when the first VAS is selected; determining that a second VAS is to be selected over the first VAS based on the detected sound; selecting the second VAS to communicate with the NMD and forgoing the selection of the first VAS; producing a second sound-data stream based on the detected sound using the spatial processor , wherein the spatial processor operates according to a second configuration when the second VAS is selected; and transmitting the second sound-data stream to a remote computing device associated with the second VAS.
A method of cleaning a channel using a diaphragm pump module having at least one diaphragm pump chamber having a diaphragm arranged therein, wherein the channel is fluidly connected to the at least one diaphragm pump chamber, the method comprising: putting, by coordinated reciprocal motion of the diaphragm , a cleaning medium in alternating pulsating motion inside the channel .
A vibration sensor comprising an assembly , which is capable of oscillating, with a mechanical oscillation assembly and at least one drive unit coupled with the mechanical oscillation assembly , for making the mechanical oscillation assembly oscillate and/or picking up an oscillation of the mechanical oscillation assembly , wherein the assembly capable of oscillating is configured in such a way that at least two differently oriented oscillation modes of the mechanical oscillation assembly can be excited, wherein the mechanical oscillation assembly has a diaphragm and at least one mechanical oscillator coupled with the diaphragm , wherein the at least one mechanical oscillator is configured in such a way that at least two relevant oscillation modes can be excited via the drive unit , characterized in that the mechanical oscillator has an accommodating portion and a planar paddle arranged on the accommodating portion, wherein the accommodating portion and the paddle are arranged so as to be twisted by 90° relative to one another and are configured in such a way that the paddle , when excited with a first frequency (f 1 ), oscillates perpendicularly to its surface and, when excited with a second frequency (f 2 ), in the plane of the surface, and wherein the oscillation assembly has two mechanical oscillators configured in a mirror-inverted manner, wherein the paddles of the mechanical oscillators respectively oscillate in opposite directions ( L, L , T, T ) when excited.
A sub-microsecond pulsed electric field generator system , comprising: a controller configured to generate a power supply control signal and to generate a pulse generator control signal; a power supply configured to receive the power supply control signal and generate one or more power voltages based in part on the received power supply control signal; and a pulse generator configured to receive the one or more power voltages and the pulse generator control signal, and to generate one or more pulses based in part on the one or more power voltages received from the power supply and based in part on the pulse generator control signal received from the controller, wherein the pulse generator is a nanosecond pulsed electric field generator comprising a plurality of pulse generator stages , and wherein each pulse generator stage of the plurality of pulse generator stages comprises: a switch stack including a plurality of switches connected in series; one or more switch drivers comprising a transformer , the one or more switch drivers connecting to the plurality of switches and configured to generate switch control signal pulses for switching respective switches of the plurality of switches; and a capacitive element coupled to the switch stack. a controller configured to generate a power supply control signal and to generate a pulse generator control signal; a power supply configured to receive the power supply control signal and generate one or more power voltages based in part on the received power supply control signal; and a pulse generator configured to receive the one or more power voltages and the pulse generator control signal, and to generate one or more pulses based in part on the one or more power voltages received from the power supply and based in part on the pulse generator control signal received from the controller, wherein the pulse generator is a nanosecond pulsed electric field generator comprising a plurality of pulse generator stages , and wherein each pulse generator stage of the plurality of pulse generator stages comprises: a switch stack including a plurality of switches connected in series; one or more switch drivers comprising a transformer , the one or more switch drivers connecting to the plurality of switches and configured to generate switch control signal pulses for switching respective switches of the plurality of switches; and a capacitive element coupled to the switch stack. a switch stack including a plurality of switches connected in series; one or more switch drivers comprising a transformer , the one or more switch drivers connecting to the plurality of switches and configured to generate switch control signal pulses for switching respective switches of the plurality of switches; and a capacitive element coupled to the switch stack.
A cooling fan assembly for operating machines and/or vehicles, in particular agricultural tractors and off-road vehicles, comprising a fan with at least one blade mounted on a hub which can be rotationally driven about its axis (X-X) by associated driving means suitable for connection to a heat engine of the vehicle and mounted on a fixed support by means of a bearing , and an apparatus for actuating and controlling the rotation about its longitudinal axis (Y-Y) of the at least one blade , the apparatus comprising: - a ring provided with a radial seat inside which a radial pin , eccentrically engaged in a base integral with the shank of the blade , is inserted; - an electric motor which is coaxial with the axis (X-X) of the hub and the shaft of which is coaxially connected to a reduction gear , the kinematic output element of which is coaxially connected by means of a screw / female thread coupling to a slider displaceable in both directions along the hub axis (X-X) and kinematically connected to the ring with eccentric pin for driving the base integral with the shank of the blade; wherein the reduction gear is a multi-stage epicyclic reduction gear coaxially arranged inside the fixed support , and the electric motor is coaxially inserted inside the fixed support and fixed thereto. - a ring provided with a radial seat inside which a radial pin , eccentrically engaged in a base integral with the shank of the blade , is inserted; - an electric motor which is coaxial with the axis (X-X) of the hub and the shaft of which is coaxially connected to a reduction gear , the kinematic output element of which is coaxially connected by means of a screw / female thread coupling to a slider displaceable in both directions along the hub axis (X-X) and kinematically connected to the ring with eccentric pin for driving the base integral with the shank of the blade;
A method comprising: receiving, by an inbound sideband interface of a device, a message over a first sideband link; calculating, by a parity logic of the device, a parity bit for the message; and forwarding, by an outbound sideband interface of the device, the message to another device over a second sideband link, wherein the second sideband link comprises a plurality of data wires and a parity bit wire, the message is to be forwarded over at least some of the data wires and the parity bit is to be sent to the other device over the parity bit wire to correspond with the message, wherein a sideband parity error is detected, by the parity logic, based on the parity bit, and the inbound and outbound sideband interfaces correspond to a fabric and the method further comprises causing the fabric to enter reset based on the sideband parity error. receiving, by an inbound sideband interface of a device, a message over a first sideband link; calculating, by a parity logic of the device, a parity bit for the message; and forwarding, by an outbound sideband interface of the device, the message to another device over a second sideband link, wherein the second sideband link comprises a plurality of data wires and a parity bit wire, the message is to be forwarded over at least some of the data wires and the parity bit is to be sent to the other device over the parity bit wire to correspond with the message, wherein a sideband parity error is detected, by the parity logic, based on the parity bit, and the inbound and outbound sideband interfaces correspond to a fabric and the method further comprises causing the fabric to enter reset based on the sideband parity error.