mhurhangee/ep-ind-claims huggingface dataset:
Seat backrest comprising a frame and a cover extending around at least one portion of the frame, said cover defining at least one portion of the outer surface of the backrest, an airbag module, comprising a recess which receives an airbag, being fastened to said frame in a fastening region, the cover extending, at least in the fastening region, between said frame and the recess of the airbag module, said recess being fastened to the frame through the cover and extending entirely from the side of the outer surface of the backrest, characterized in that, at least in the fastening region, the cover is in direct contact with the frame.
A rolling bearing device with a sensor comprising: an outer ring having a raceway surface on inner circumference thereof; an inner ring (102, 103) having a raceway surface on outer circumference thereof; rolling elements placed between the raceway surface of the outer ring and the raceway surface of the inner ring (102, 103); and a sensor having a film which is affixed onto a surface of the outer ring or the inner ring (102, 103) and which has insulation property, a foil which is affixed onto the film and which has electrical conductivity, and a measurement section for measuring a current, voltage or resistance between a first place and a second place of the foil, characterised in that the sensor is formed in a band shape and is wound around a circumferential surface of the outer ring or a circumferential surface of the inner ring. an outer ring having a raceway surface on inner circumference thereof; an inner ring (102, 103) having a raceway surface on outer circumference thereof; rolling elements placed between the raceway surface of the outer ring and the raceway surface of the inner ring (102, 103); and a sensor having a film which is affixed onto a surface of the outer ring or the inner ring (102, 103) and which has insulation property, a foil which is affixed onto the film and which has electrical conductivity, and a measurement section for measuring a current, voltage or resistance between a first place and a second place of the foil, characterised in that the sensor is formed in a band shape and is wound around a circumferential surface of the outer ring or a circumferential surface of the inner ring.
A modular track connection for a self-propelled harvesting machine which is provided for positioning at one end of a drive axle body, with a support element on which a bearing is disposed, wherein the bearing serves to mount a track roller unit and extends parallel to a drive axle for the track roller unit, characterized in that the support element is configured as a support plate which extends transversely to the drive axle, and in that a spacer body is disposed on one side of the support plate, the spacer body having a wall which bounds it and which extends parallel to the support plate.
Energy supply apparatus for supplying electrical energy for at least one terminal, having a power connector for connecting the energy supply apparatus to an AC current network and having a rectifier apparatus for transforming an AC current supplied via the power connector into a DC current in an intermediate circuit, wherein several voltage converters and several DC current connectors are present, wherein the voltage converters are in each case on the one hand electrically connected at least temporarily to the intermediate circuit and on the other hand electrically connected at least temporarily to a DC current connector of the several DC current connectors, wherein several ones of the DC current connectors can be connected to the same one of the voltage converters and several ones of the voltage converters can be connected to the same one of the DC current connectors, wherein a switch arrangement is electrically connected to a first one of the DC current connectors and another, second one of the DC current connectors, by means of which switch arrangement in a first switching position either the first DC current connector or the second DC current connector is connected to an output side of the one voltage converter and in a second switching position the first DC current connector and the second DC current connector are connected in an electrically parallel manner with the output side of the one voltage converter, characterised in that in a third switching position of the switching arrangement the first DC current connector is electrically connected to an input side of one of the voltage converters and the second DC current connector is electrically connected to the output side of the one voltage converter and this voltage converter is isolated from the intermediate circuit, such that the first DC current connector can be connected via the one voltage converter to the second DC current connector.
Intersomatic cage for vertebral stabilization, comprising a generally parallelepiped monolithic body having two respectively upper and lower opposite faces (2, 3), with reference to the implanted position of the cage in an intervertebral space of a subject with an upright spine, provided with anchoring formations (2a, 3a), said body having a median longitudinal plane between said upper and lower faces (2, 3) and a nose protruding from the front end of the body and designed to be inserted between two contiguous vertebrae so as to space them apart during the surgical insertion of the cage, wherein: - the nose extends from a median area of said front end of the body on the extension of said median longitudinal plane of the body parallel to said upper and lower faces (2, 3), - the nose cross section in a plane perpendicular to said median longitudinal plane is substantially constant and has a quadrangular shape with rounded edges, - the nose is connected to said median area of said front end of the body through curved surfaces having variable radiuses. - the nose extends from a median area of said front end of the body on the extension of said median longitudinal plane of the body parallel to said upper and lower faces (2, 3), - the nose cross section in a plane perpendicular to said median longitudinal plane is substantially constant and has a quadrangular shape with rounded edges, - the nose is connected to said median area of said front end of the body through curved surfaces having variable radiuses.
A method for operating a wireless communications device, comprising: monitoring, while connected to an access point, AP, (104, 108) via a wireless communications link, data exchanged between a wireless local area network, WLAN, transceiver of the device and an application running on a processor of the device; characterizing the monitored data into quality of service, QoS, access categories; determining at least one connection characteristic of the communications link based on the monitored data; adjusting a roaming parameter based, at least in part, on the QoS access categories, and the at least one determined connection characteristic, wherein the roaming parameter comprises at least one of a roaming threshold or a switching threshold; and performing a roaming scan based at least in part on the roaming parameter. monitoring, while connected to an access point, AP, (104, 108) via a wireless communications link, data exchanged between a wireless local area network, WLAN, transceiver of the device and an application running on a processor of the device; characterizing the monitored data into quality of service, QoS, access categories; determining at least one connection characteristic of the communications link based on the monitored data; adjusting a roaming parameter based, at least in part, on the QoS access categories, and the at least one determined connection characteristic, wherein the roaming parameter comprises at least one of a roaming threshold or a switching threshold; and performing a roaming scan based at least in part on the roaming parameter.
A method comprising: generating one or more signals for driving a magnetic field transmitter at a first frequency and a second frequency, the magnetic field transmitter being configured to generate a first magnetic field, and wherein the first frequency is between 5 Hz and 100 Hz and the second frequency is between 100 Hz and 1,000 Hz; receiving, from a plurality of magnetic field receivers including magnetic sensors, data characterizing samples obtained by the plurality of magnetic field receivers, the samples of a combination of the first magnetic field and a second magnetic field resulting from interaction of the first magnetic field and an object; determining, using the received data, a polarizability index of the object, the polarizability index characterizing a magnetic polarizability property of the object; classifying, using the determined polarizability index, the object as threat or non-threat; and providing the classification. generating one or more signals for driving a magnetic field transmitter at a first frequency and a second frequency, the magnetic field transmitter being configured to generate a first magnetic field, and wherein the first frequency is between 5 Hz and 100 Hz and the second frequency is between 100 Hz and 1,000 Hz; receiving, from a plurality of magnetic field receivers including magnetic sensors, data characterizing samples obtained by the plurality of magnetic field receivers, the samples of a combination of the first magnetic field and a second magnetic field resulting from interaction of the first magnetic field and an object; determining, using the received data, a polarizability index of the object, the polarizability index characterizing a magnetic polarizability property of the object; classifying, using the determined polarizability index, the object as threat or non-threat; and providing the classification.
A power distribution architecture (20, 120, 220, 320, 420) for an off-road vehicle, the power distribution architecture comprising: a work circuit including a plurality of motion control units (46a-46d) configured to be fluidly connected to separate hydraulic actuators (26, 27, 28, 29), the motion control units each including an electric motor/generator mechanically coupled to a pump/motor; an electrical bus for providing electrical power to each of the electric motors/generators; a common pressure rail for providing hydraulic power to each of the motion control units (46a-46d), characterized in that the power distribution architecture further comprises: a prime mover which directs power through a power take-off to a mechanical transmission for driving propulsion of the vehicle, wherein the prime mover also is coupled by a mechanical power take-off to a pump for pressuring the common pressure rail, and wherein the prime mover drives an electric generator for energizing the electrical bus. a work circuit including a plurality of motion control units (46a-46d) configured to be fluidly connected to separate hydraulic actuators (26, 27, 28, 29), the motion control units each including an electric motor/generator mechanically coupled to a pump/motor; an electrical bus for providing electrical power to each of the electric motors/generators; a common pressure rail for providing hydraulic power to each of the motion control units (46a-46d),
Method for controlling a transfer case and/or a differential lock of a vehicle, characterized in that the method has the following steps: reading in a torque signal and an inclination signal, wherein the torque signal represents a torque which is output by a motor, and the inclination signal represents an inclination of a piece of ground on which the vehicle is currently located; and activating the transfer case and/or the differential lock in the vehicle in response to the torque signal and the inclination signal, characterized in that in the reading in step a torque signal is also read in which represents a rotational speed of an output shaft of the motor, wherein in the activation step the transfer case and/or the differential lock are/is not activated if the rotational speed has a value which is higher a predefined rotational speed maximum value. reading in a torque signal and an inclination signal, wherein the torque signal represents a torque which is output by a motor, and the inclination signal represents an inclination of a piece of ground on which the vehicle is currently located; and activating the transfer case and/or the differential lock in the vehicle in response to the torque signal and the inclination signal, characterized in that in the reading in step a torque signal is also read in which represents a rotational speed of an output shaft of the motor, wherein in the activation step the transfer case and/or the differential lock are/is not activated if the rotational speed has a value which is higher a predefined rotational speed maximum value.
A method of Digital Radio Mondiale, DRM, signal processing to reduce delays in time for channel estimation comprising: receiving a DRM signal at a signal processor, the DRM signal comprising a Fast Access Channel, FAC, and one or more channels from a group including: a Service Description Channel, SDC, and a Main Service Channel, MSC; estimating the FAC channel from the received DRM signal with a one-dimensional, 1D, frequency filter in a frequency domain to generate an interim output; decoding said interim output to generate decoded interim output; estimating said FAC channel with a 2D filter in parallel with estimating said FAC channel with said 1D filter, to generate said interim output; wherein if the decoding after estimating of said FAC channel by said 1D filter is unsuccessful, using the channel estimation output of said 2D filter as said interim output, decoding the said interim output and repeating the estimating of said FAC channel with said 2D filter and decoding said interim output until the decoding is successful and using the channel estimation output of said 1D filter as said interim output if the decoding after estimating of said FAC channel by said 1D filter is successful, and estimating (414,418) at least one of the SDC and MSC channels from the decoded selected interim output with a two-dimensional, 2D, filter to produce a final output. receiving a DRM signal at a signal processor, the DRM signal comprising a Fast Access Channel, FAC, and one or more channels from a group including: a Service Description Channel, SDC, and a Main Service Channel, MSC; estimating the FAC channel from the received DRM signal with a one-dimensional, 1D, frequency filter in a frequency domain to generate an interim output; decoding said interim output to generate decoded interim output; estimating said FAC channel with a 2D filter in parallel with estimating said FAC channel with said 1D filter, to generate said interim output; wherein if the decoding after estimating of said FAC channel by said 1D filter is unsuccessful, using the channel estimation output of said 2D filter as said interim output, decoding the said interim output and repeating the estimating of said FAC channel with said 2D filter and decoding said interim output until the decoding is successful and using the channel estimation output of said 1D filter as said interim output if the decoding after estimating of said FAC channel by said 1D filter is successful, and
A vibration damping assembly for a gas turbine engine comprising: a strut configured to couple a fan case and a turbine engine case of a turbine engine; a strut cavity formed within a recessed area of a vane body of the strut; a vane cover received within the recessed area; an opening formed in the vane cover adjacent the strut cavity; vibration damping media disposed in the strut cavity and the opening; and an outer cover covering the opening such that the vibration damping media is contained in the strut cavity, the outer cover defining an outer surface of the strut. a strut configured to couple a fan case and a turbine engine case of a turbine engine; a strut cavity formed within a recessed area of a vane body of the strut; a vane cover received within the recessed area; an opening formed in the vane cover adjacent the strut cavity; vibration damping media disposed in the strut cavity and the opening; and an outer cover covering the opening such that the vibration damping media is contained in the strut cavity, the outer cover defining an outer surface of the strut.
A mobile image display system, comprising: a carousel frame; a plurality of panels movable on said carousel frame, at least one of said plurality of panels including a video display; a central processing unit; a data transmission device which communicates data between said central processing unit and at least one of said plurality of panels for sending image data theretof, characterized by a power supply providing power to at least one of said plurality of panels, the power supply device comprising a power rail (26, 28) disposed along at least one of a position of said carousel frame corresponding to an upper edge of said plurality of panels and a position of said carousel frame corresponding to a lower edge of said plurality of panels. a carousel frame; a plurality of panels movable on said carousel frame, at least one of said plurality of panels including a video display; a central processing unit; a data transmission device which communicates data between said central processing unit and at least one of said plurality of panels for sending image data theretof,
A setting method for a conducting element of an electrochemical test strip, the setting method comprising the following steps: A. molding a metal conducting rack step, consisting of molding a metal conducting rack on a conducting metal substrate by a metal processing method, the metal conducting rack including a holder connected to a plurality of conducting elements; wherein each conducting element comprises an information reception end having an external contact surface, and each conducting element further comprises an information outputting end having a transmission contact surface; B. embedded injection of a conducting inspection body step, consisting of inject molding an inspection body of a polymer plastic material from the plurality of conducting elements on the metal conducting rack and wherein the inspection body comprises an inspection slot and a plurality of accommodation portions, the inspection slot is disposed on a side of the inspection body and is recessed into an inner side of the inspection body, and the external contact surface of each information reception end exposes from the surface of the inspection slot; and C. taking out the inspection body step, consisting of getting the inspection body from the holder of the metal conducting rack; wherein the setting method is characterised in that it further comprises the following step: D. bending the information outputting end step, wherein each information outputting end is bend from a side of the inspection body into the corresponding accommodation portion, and the transmission contact surface is exposed. A. molding a metal conducting rack step, consisting of molding a metal conducting rack on a conducting metal substrate by a metal processing method, the metal conducting rack including a holder connected to a plurality of conducting elements; wherein each conducting element comprises an information reception end having an external contact surface, and each conducting element further comprises an information outputting end having a transmission contact surface; B. embedded injection of a conducting inspection body step, consisting of inject molding an inspection body of a polymer plastic material from the plurality of conducting elements on the metal conducting rack and wherein the inspection body comprises an inspection slot and a plurality of accommodation portions, the inspection slot is disposed on a side of the inspection body and is recessed into an inner side of the inspection body, and the external contact surface of each information reception end exposes from the surface of the inspection slot; and C. taking out the inspection body step, consisting of getting the inspection body from the holder of the metal conducting rack;
An apparatus comprising: a current source configured to draw a constant input current from a power source and to generate an output current, the current source comprising an n-type field effect transistor that is biased to operate as a constant current source; wherein the current source is configured to provide the output current to a first capacitor and charge the first capacitor during a first time period associated with operation of a load; wherein the current source is configured to provide the output current to the load and the first capacitor is configured to provide an additional current to the load during a second time period associated with operation of the load; wherein the current source further comprises: a voltage source coupled to a drain of the transistor; a first resistor coupled to the drain of the transistor; a second resistor coupled between the voltage source and the first resistor; a second capacitor coupled to a source of the transistor; and a third resistor coupled between the second capacitor and the first and second resistors (206, 208); and wherein a gate of the transistor is coupled to the second capacitor and the third resistor. a current source configured to draw a constant input current from a power source and to generate an output current, the current source comprising an n-type field effect transistor that is biased to operate as a constant current source; wherein the current source is configured to provide the output current to a first capacitor and charge the first capacitor during a first time period associated with operation of a load; wherein the current source is configured to provide the output current to the load and the first capacitor is configured to provide an additional current to the load during a second time period associated with operation of the load; wherein the current source further comprises: a voltage source coupled to a drain of the transistor; a first resistor coupled to the drain of the transistor; a second resistor coupled between the voltage source and the first resistor; a second capacitor coupled to a source of the transistor; and a third resistor coupled between the second capacitor and the first and second resistors (206, 208); and a voltage source coupled to a drain of the transistor; a first resistor coupled to the drain of the transistor; a second resistor coupled between the voltage source and the first resistor; a second capacitor coupled to a source of the transistor; and a third resistor coupled between the second capacitor and the first and second resistors (206, 208); and wherein a gate of the transistor is coupled to the second capacitor and the third resistor.