mhurhangee/ep-ind-claims huggingface dataset:
A cladding element for a motor vehicle having - a planar body made of plastic and - at least one latching element moulded on to the body, preferably integrally, for producing a latching connection of the body with an external attachment of the motor vehicle, wherein the latching element is directed away from the planar body, and wherein an additional side latching element is moulded on to the latching element, preferably integrally, which allows an additional lateral latching of the latching element on the external attachment, characterised in that at least one further, second latching element adjacent to the latching element is moulded on to the body and in that the second latching element is formed without a side latching element. - a planar body made of plastic and - at least one latching element moulded on to the body, preferably integrally, for producing a latching connection of the body with an external attachment of the motor vehicle,
A data retransmission method, comprising: transmitting, by a first device, data to a second device by using a first carrier, wherein the first carrier is an unlicensed carrier; retransmitting, at least once, by the first device, the data to the second device by using a second carrier, wherein the first carrier and the second carrier are different carriers; and sending, by the first device, control signaling to the second device, characterized by, the control signaling comprises a modulation and coding scheme, MCS, field, the MCS field is used to indicate whether the data is retransmitted data belonging to the first carrier or retransmitted data belonging to the second carrier and when a value of the MCS field is any value in [0, 31-N], it represents that the data is retransmitted data belonging to the first carrier, or when a value of the MCS field is any value in (31-N, 31], it represents that the data is retransmitted data belonging to the second carrier, wherein N is a quantity of preset modulation schemes and is a positive integer less than or equal to 31. transmitting, by a first device, data to a second device by using a first carrier, wherein the first carrier is an unlicensed carrier; retransmitting, at least once, by the first device, the data to the second device by using a second carrier, wherein the first carrier and the second carrier are different carriers; and sending, by the first device, control signaling to the second device, characterized by, the control signaling comprises a modulation and coding scheme, MCS, field, the MCS field is used to indicate whether the data is retransmitted data belonging to the first carrier or retransmitted data belonging to the second carrier and when a value of the MCS field is any value in [0, 31-N], it represents that the data is retransmitted data belonging to the first carrier, or when a value of the MCS field is any value in (31-N, 31], it represents that the data is retransmitted data belonging to the second carrier, wherein N is a quantity of preset modulation schemes and is a positive integer less than or equal to 31.
A structure for adjusting a support force of a lumbar pillow, comprising: a back hugger body, a lumbar pillow, an elastic support, and a support adjustment mechanism; wherein a bottom of the back hugger body is hinged to a top of the lumbar pillow, and a back of the back hugger body is provided with a connection arm; one end of the elastic support is connected to a back of the lumbar pillow, and the other end of the elastic support is connected to a front side of the connection arm; and the support adjustment mechanism comprises a slide block and a drive assembly connected to the slide block, wherein the slide block is slidably connected between the elastic support and the connection arm and is abutted against a back of the elastic support, the drive assembly is configured to drive the slide block to slide upward and downward along a vertical direction of the back hugger body to change a support position of the slide block on the elastic support. a bottom of the back hugger body is hinged to a top of the lumbar pillow, and a back of the back hugger body is provided with a connection arm; one end of the elastic support is connected to a back of the lumbar pillow, and the other end of the elastic support is connected to a front side of the connection arm; and the support adjustment mechanism comprises a slide block and a drive assembly connected to the slide block, wherein the slide block is slidably connected between the elastic support and the connection arm and is abutted against a back of the elastic support, the drive assembly is configured to drive the slide block to slide upward and downward along a vertical direction of the back hugger body to change a support position of the slide block on the elastic support.
A smart load-sensing electro-hydrostatic-actuator EHA, comprising a variable displacement hydraulic pump, a symmetrical hydraulic cylinder, a feedback module, a pressure-following valve and an execution mechanism; the symmetrical hydraulic cylinder includes a symmetrical plunger, a first cylinder chamber and a second cylinder chamber separated by the plunger; the variable displacement hydraulic pump includes an oil inlet and an oil outlet connected with the first cylinder chamber and the second cylinder chamber, respectively; the feedback module includes a first input, a second input and an output, the first input and the second input being connected with the first cylinder chamber and the second cylinder chamber, respectively, the output being used to output a greater one of the pressures at the first input and the second input to the execution mechanism; the pressure-following valve is connected between the output of the feedback module and an input end of the execution mechanism to reduce an instantaneous flow input to the input end of the execution mechanism; the input end of the execution mechanism is connected to the output of the pressure-following valve, and the output end of the execution mechanism is connected to the variable displacement hydraulic pump; the execution mechanism is used to receive an output of the feedback module and generate a signal for changing a displacement of the variable displacement hydraulic pump, characterized in that, the pressure-following valve includes a housing, a spool located in the housing and a first hydraulic half-bridge; wherein the spool is an asymmetrical plunger and includes a second shaft extending beyond the housing and a second plug fixedly connected with the second shaft and located inside the housing, the second plug being provided with a circumferential groove which divides the second plug into a first plug body and a second plug body; a clearance-fit is created by the first plug body, the second plug body and the housing; the spool divides the housing into a rod chamber containing the second shaft, a middle chamber between the first plug body and the second plug body, and a rodless chamber; the housing is provided with a first inlet, a second inlet, and a third inlet; the first inlet is connected to an output of the feedback module, and the second inlet is connected to an external tank; the first inlet is connected with a first end of the first hydraulic half-bridge, the second inlet being connected with a second end thereof, the third inlet being connected with an intermediate end thereof to input external input pressure into the rodless chamber after pressure depressure; and the housing is also provided with an outlet connected to the input end of the execution mechanism, and a feedback port for feeding back pressure of the outlet to the rod chamber.
A method for wireless communication, comprising: communicating with a first wireless system of a first radio technology by a user equipment, UE,; receiving a page to establish a connection with a second wireless system of a second radio technology, the page being sent by the second wireless system to the UE in response to a decision by a network entity to switch the UE from the first wireless system to the second wireless system, wherein the decision is based on a load on the first wireless system relative to a load on the second wireless system, or a channel quality for the first wireless system relative to a channel quality for the second wireless system, or a data rate for the UE for the first wireless system relative to a data rate for the UE for the second wireless system, or any combination thereof; and establishing a connection with the second wireless system in response to the page; determining the UE being blocked by the first wireless system from accessing the first wireless system by (i) not receiving a probe response to acknowledge a probe request sent by the UE, (ii) not receiving an association response to acknowledge an association request sent by the UE, (iii) not receiving an indication of high loading at the first wireless system in an association response sent to the UE, (iv) not completing authentication for the UE with the first wireless system or (v) a combination thereof after establishing the connection with the second wireless system; and terminating communication with the first wireless system in response to determining the UE being blocked by the first wireless system. communicating with a first wireless system of a first radio technology by a user equipment, UE,; receiving a page to establish a connection with a second wireless system of a second radio technology, the page being sent by the second wireless system to the UE in response to a decision by a network entity to switch the UE from the first wireless system to the second wireless system, wherein the decision is based on a load on the first wireless system relative to a load on the second wireless system, or a channel quality for the first wireless system relative to a channel quality for the second wireless system, or a data rate for the UE for the first wireless system relative to a data rate for the UE for the second wireless system, or any combination thereof; and establishing a connection with the second wireless system in response to the page;
A decoder for generating a multi channel audio signal from a scalable audio bit-stream, the decoder being characterized by comprising: - means for receiving the scalable audio bit-stream comprising a first waveform based bit-stream component, a second bit-stream component comprising first multi channel extension data and a third bit-stream component comprising second alternative multi channel extension data, the first multi channel extension data and the second alternative multi channel extension data representing alternative multi channel extension data independently of each other relating to the first waveform based bit-stream component; the first waveform based bit-stream component and the second bit-stream component corresponding to a first representation of the multi channel audio signal and the first waveform based bit-stream component and the third bit-stream component corresponding to a second representation of the multi channel audio signal; - a first waveform decoder for generating a first decoded signal for at least a first channel of the multi channel audio signal by decoding the first waveform based bit-stream component; and at least one of: - a second decoder for generating the multi channel audio signal by modifying the first decoded signal in response to the second bit-stream component, and - a third decoder for generating the multi channel audio signal by modifying the first decoded signal in response to the third bit-stream component. - means for receiving the scalable audio bit-stream comprising a first waveform based bit-stream component, a second bit-stream component comprising first multi channel extension data and a third bit-stream component comprising second alternative multi channel extension data, the first multi channel extension data and the second alternative multi channel extension data representing alternative multi channel extension data independently of each other relating to the first waveform based bit-stream component; the first waveform based bit-stream component and the second bit-stream component corresponding to a first representation of the multi channel audio signal and the first waveform based bit-stream component and the third bit-stream component corresponding to a second representation of the multi channel audio signal; - a first waveform decoder for generating a first decoded signal for at least a first channel of the multi channel audio signal by decoding the first waveform based bit-stream component; - a second decoder for generating the multi channel audio signal by modifying the first decoded signal in response to the second bit-stream component, and - a third decoder for generating the multi channel audio signal by modifying the first decoded signal in response to the third bit-stream component.
A mobile display apparatus, comprising: a frame structure for attaching the display apparatus to a mobile vehicle; at least one display module comprising a plurality of pixel arrangements coupled to the frame structure to form a channel extending between the frame structure and the at least one display module, the at least one display module positioned and configured to display at least a portion of an adaptable image; a ventilation system in communication with the channel; a display cover abutting a portion of the frame structure, wherein a cover retaining portion of the frame structure extends around the edges of the display cover, and wherein the display cover and the frame structure substantially seal each display module of the at least one display module within the frame structure; and a power supply; wherein the ventilation system comprises a fan in fluid communication with the channel through an aperture formed in the frame structure, the fan configured to facilitate movement of a fluid through the channel; and wherein the fan and/or the power supply are configured for placement within the mobile vehicle. a frame structure for attaching the display apparatus to a mobile vehicle; at least one display module comprising a plurality of pixel arrangements coupled to the frame structure to form a channel extending between the frame structure and the at least one display module, the at least one display module positioned and configured to display at least a portion of an adaptable image; a ventilation system in communication with the channel; a display cover abutting a portion of the frame structure, wherein a cover retaining portion of the frame structure extends around the edges of the display cover, and wherein the display cover and the frame structure substantially seal each display module of the at least one display module within the frame structure; and a power supply; wherein the ventilation system comprises a fan in fluid communication with the channel through an aperture formed in the frame structure, the fan configured to facilitate movement of a fluid through the channel; and wherein the fan and/or the power supply are configured for placement within the mobile vehicle.
A computer implemented method for migrating data from a source storage system 200 to a destination storage system 220 comprising the following steps: - performing (431, 531) an initial copy (101, 301); and - subsequently performing (432, 532, 535) one or more incremental copies (102-106, 108-110, 302-306); and then - subsequently performing (437, 537) a final cutover incremental copy (111, 311); characterized in that said performing one or more incremental copies further comprises excluding from a respective one of said one or more incremental copies first data portions of said data that are likely to change before said performing a final cutover incremental copy (111, 311). - performing (431, 531) an initial copy (101, 301); and - subsequently performing (432, 532, 535) one or more incremental copies (102-106, 108-110, 302-306); and then - subsequently performing (437, 537) a final cutover incremental copy (111, 311);
A tire comprising a tread having a tread surface on which one or more land portions (20, 21, 22) are defined by two or more circumferential grooves (10, 11, 12, 13) extending in a circumferential direction of the tread, wherein the one or more land portions (20, 21, 22) each have a plurality of sipes (14A, 14, B, 14C) extending in a direction traversing an equator of the tire and spaced from each other in the circumferential direction of the tread, and a dynamic elastic modulus E' at 30 °C of a rubber composition forming the one or more land portions (20, 21, 22), a number N of the plurality of sipes (14A, 14, B, 14C), and a depth D of the circumferential grooves (10, 11, 12, 13) satisfy the following expression: 0.009 MPa / mm ≤ E ′ / N × D ≤ 0.029 MPa / mm; characterised in that: the circumferential grooves (10, 11, 12, 13) include four circumferential grooves (10, 11, 12, 13), the one or more land portions include three land portions (20, 21, 22), the three land portions (20, 21, 22) being defined between the four circumferential grooves (10, 11, 12, 13), and a width of a land portion at a center of the three land portions (20, 21, 22) is in a range of 90 % to 130 % of a width (WA, WC) of each of land portions (20, 22) on both sides thereof.
Bearing comprising a bearing ring and an inductive angular displacement sensor of said bearing ring, said inductive sensor comprising: - a transducer including at least one primary winding suitable for producing a magnetic excitation, and at least one secondary winding including at least one turn, suitable for supplying an electromotive force at the terminals thereof in the presence of said excitation; - a target (301; 401; 511) suitable for moving parallel with the transducer; and said target being formed from a single conductive metal part and comprising a face with a base wall (309; 509) and one or a plurality of metal studs (307i; 407i; 507i) projecting from this base wall, said target being oriented towards the transducer of the inductive sensor, said studs thereby forming conductive patterns; characterized in that said target (301; 401; 511) is fastened firmly to the bearing ring, for which the angular displacement is measured by the transducer, or the target (301; 401; 511) is machined directly in the bearing ring for which the angular displacement is measured by the transducer; and the conductive patterns are distributed along a zone having a dimension D tot in a circular direction, said patterns (127 i; 137 i; 147 i) being defined by the overlay of at least a first set of elementary periodic patterns having a period approximately equal to D tot /N, including N first elementary conductive patterns (129 j; 139 j; 149 j) of a dimension approximately equal to D tot /2N in said direction, regularly distributed along said zone, and of a second set of elementary periodic patterns having a period approximately equal to D tot /(N+r), including N+r second elementary patterns (131 k; 141 k; 151 k) of a dimension approximately equal to D tot /2(N+r) in said direction, regularly distributed along said zone, where N is an integer greater than or equal to 2 and r is a positive integer, different to zero and less than or equal to N-1, wherein the first and second elementary conductive patterns overlap at least partially. - a transducer including at least one primary winding suitable for producing a magnetic excitation, and at least one secondary winding including at least one turn, suitable for supplying an electromotive force at the terminals thereof in the presence of said excitation; - a target (301; 401; 511) suitable for moving parallel with the transducer; and
A gas combustion type driving tool comprising: an output unit that includes a combustion chamber; a grip that is connected to a lower surface of the output unit; a fuel container storage unit to which a fuel container is detachably attached; and a battery mounting unit to which a battery pack is detachably attached; characterized in that the gas combustion type driving tool further comprises a coupler that is configured to take air in, wherein a fastener is driven out by combustion pressure when mixed gas of combustible gas supplied from the fuel container and compressed air supplied from outside via the coupler is ignited, wherein the coupler is disposed on a lower end side of the grip, and wherein the gas combustion type driving tool includes a pipe configured to connect the coupler and the combustion chamber. an output unit that includes a combustion chamber; a grip that is connected to a lower surface of the output unit; a fuel container storage unit to which a fuel container is detachably attached; and a battery mounting unit to which a battery pack is detachably attached; characterized in that the gas combustion type driving tool further comprises a coupler that is configured to take air in, wherein a fastener is driven out by combustion pressure when mixed gas of combustible gas supplied from the fuel container and compressed air supplied from outside via the coupler is ignited, wherein the coupler is disposed on a lower end side of the grip, and wherein the gas combustion type driving tool includes a pipe configured to connect the coupler and the combustion chamber.
Resin composition for polyurethane paints for road markings or floor markings, which comprises: at least one polyol and/or polyether diamine, and at least one filler having the particle size less than 500μm, wherein the mass ratio polyol and/or polyether diamine to filler is from 1:3 to 1:8, preferably 1:4; and: - 1.0-10.0%, preferably about 5.0%, based on the mass of the filler of at least one filler wetting agent which is selected from the class of silicone surfactants (for example, polydimethylsiloxanes modified with polyethers) or 2-ethyl-haxyl-stearate and - 0.5-10% based on the mass of the total resin composition of at least one viscosity modifying agent selected from 2-ethyl-hexyl-stearate. - 1.0-10.0%, preferably about 5.0%, based on the mass of the filler of at least one filler wetting agent which is selected from the class of silicone surfactants (for example, polydimethylsiloxanes modified with polyethers) or 2-ethyl-haxyl-stearate and - 0.5-10% based on the mass of the total resin composition of at least one viscosity modifying agent selected from 2-ethyl-hexyl-stearate.
A method for operating an electrosurgical generator, the method comprising: receiving a high level algorithm at an electrosurgical generator including a processor, a power supply, and a radio frequency amplifier, the high level algorithm including an interpreted language script; processing the interpreted language script through an interpreter engine executed by the processor; selecting at least one of a plurality of configuration files stored in the memory based on the interpreted language script to effect a desired mode of operation; and executing the interpreted language script based on the selected one of the plurality of configuration files to generate instructions which cause the electrosurgical generator to control at least one of the power supply or the radio frequency amplifier to generate radio frequency energy according to the selected one of the plurality of configuration files. receiving a high level algorithm at an electrosurgical generator including a processor, a power supply, and a radio frequency amplifier, the high level algorithm including an interpreted language script; processing the interpreted language script through an interpreter engine executed by the processor; selecting at least one of a plurality of configuration files stored in the memory based on the interpreted language script to effect a desired mode of operation; and executing the interpreted language script based on the selected one of the plurality of configuration files to generate instructions which cause the electrosurgical generator to control at least one of the power supply or the radio frequency amplifier to generate radio frequency energy according to the selected one of the plurality of configuration files.