mhurhangee/patent-ind-claim-en huggingface dataset:
A method for electromagnetic interference control for an electronic device and characterized by comprising: detecting (S201, S301, S401, S501, S601) electromagnetic interference between a radio frequency system and a display screen of the electronic device in response to detecting that the electronic device is in a preset scene, the preset scene comprising a game scene; in response to the detected electromagnetic interference, detecting (S302) central processing unit, CPU, load corresponding to the preset scene, and determining (S303) a real-time requirement of the preset scene according to the detected load; or detecting graphic processing unit, GPU, load corresponding to the preset scene, and determining the real-time requirement of the preset scene according to the detected load; obtaining (S203, S304, S503, S603) an interference control strategy adapted to the real-time requirement of the preset scene, wherein the interference control strategy comprises selecting a target frequency with no interference or the minimum interference for frequency hopping, switching to a data network, or negotiating channel switching with a router; and reducing or eliminating (S204, S305, S406) electromagnetic interference of a mobile industry processor interface, MIPI, of the display screen to the radio frequency system based on the interference control strategy. detecting (S201, S301, S401, S501, S601) electromagnetic interference between a radio frequency system and a display screen of the electronic device in response to detecting that the electronic device is in a preset scene, the preset scene comprising a game scene; in response to the detected electromagnetic interference, detecting (S302) central processing unit, CPU, load corresponding to the preset scene, and determining (S303) a real-time requirement of the preset scene according to the detected load; or detecting graphic processing unit, GPU, load corresponding to the preset scene, and determining the real-time requirement of the preset scene according to the detected load; detecting (S302) central processing unit, CPU, load corresponding to the preset scene, and determining (S303) a real-time requirement of the preset scene according to the detected load; or detecting graphic processing unit, GPU, load corresponding to the preset scene, and determining the real-time requirement of the preset scene according to the detected load; obtaining (S203, S304, S503, S603) an interference control strategy adapted to the real-time requirement of the preset scene, wherein the interference control strategy comprises selecting a target frequency with no interference or the minimum interference for frequency hopping, switching to a data network, or negotiating channel switching with a router; and reducing or eliminating (S204, S305, S406) electromagnetic interference of a mobile industry processor interface, MIPI, of the display screen to the radio frequency system based on the interference control strategy.
A method for wireless communication, comprising: receiving, by a terminal configured with a discontinuous receiving, DRX, mode, a first signaling with a cyclic redundancy check, CRC, scrambled by a power-saving, PS, radio network temporary identifier, RNTI, outside a DRX active time, wherein the first signaling comprises N bits, wherein each of the N bits corresponds to a group of serving cells, and wherein N is an integer; and performing, by the terminal, a bandwidth part, BWP, operation associated with a dormant BWP for a serving cell according to the first signaling, wherein the BWP operation comprises, in response to a bit of the N bits being equal to 1, leaving from the dormant BWP to a non-dormant BWP selected from a plurality of configured non-dormant BWPs by switching, by the terminal, an active BWP of the serving cell to the non-dormant BWP, wherein the non-dormant BWP is configured by a high layer signaling, wherein the BWP operation further comprises, in response to the bit of the N bits being equal to 0, entering to the dormant BWP from the non-dormant BWP by switching, by the terminal, the active BWP of the serving cell to the dormant BWP configured by the high layer signaling. receiving, by a terminal configured with a discontinuous receiving, DRX, mode, a first signaling with a cyclic redundancy check, CRC, scrambled by a power-saving, PS, radio network temporary identifier, RNTI, outside a DRX active time, wherein the first signaling comprises N bits, wherein each of the N bits corresponds to a group of serving cells, and wherein N is an integer; and performing, by the terminal, a bandwidth part, BWP, operation associated with a dormant BWP for a serving cell according to the first signaling, wherein the BWP operation comprises, in response to a bit of the N bits being equal to 1, leaving from the dormant BWP to a non-dormant BWP selected from a plurality of configured non-dormant BWPs by switching, by the terminal, an active BWP of the serving cell to the non-dormant BWP, wherein the non-dormant BWP is configured by a high layer signaling, wherein the BWP operation further comprises, in response to the bit of the N bits being equal to 0, entering to the dormant BWP from the non-dormant BWP by switching, by the terminal, the active BWP of the serving cell to the dormant BWP configured by the high layer signaling.
A method of plug and abandonment (P&A) of a well, wherein said method comprises deploying a cast-in-place P&A plug into a well to be plugged and thereby plugging said well, said P&A plug comprising two materials, a first material being an expansion metal below a second material being an adhesion resin, wherein said P&A plug has greater integrity, under wellbore conditions, than a rock-to-rock plug of equal length with either said first material alone or said second material alone.
An apparatus comprising: a substrate ; a sensing material located on the substrate; a first pair of contacts (106; 306, 308; 612, 614) coupled to the sensing material and separated by a first distance ; and a second pair of contacts (110; 306, 310; 612, 616) coupled to the sensing material and separated by a second distance , the second distance being greater than the first distance; wherein the apparatus is configured to provide a first electrical property measurement between the first pair of contacts and to provide a second electrical property measurement between the second pair of contacts, the first and second electrical property measurements for use in determining an ambient temperature and/or a substrate temperature, characterized in that the sensing material is a single piece of a particular material. a substrate ; a sensing material located on the substrate; a first pair of contacts (106; 306, 308; 612, 614) coupled to the sensing material and separated by a first distance ; and a second pair of contacts (110; 306, 310; 612, 616) coupled to the sensing material and separated by a second distance , the second distance being greater than the first distance; wherein the apparatus is configured to provide a first electrical property measurement between the first pair of contacts and to provide a second electrical property measurement between the second pair of contacts, the first and second electrical property measurements for use in determining an ambient temperature and/or a substrate temperature, characterized in that the sensing material is a single piece of a particular material.
A cyanate ester resin composition, comprising: a cyanate ester resin (A); a curing agent or a curing accelerator (B); silica microparticles (C); and core-shell rubber particles (D), wherein the resin composition includes from 1 to 5 parts by mass of the silica microparticles (C) and from 2 to 10 parts by mass of the core-shell rubber particles (D) based on 100 parts by mass of the cyanate ester resin (A), and a mass ratio of the silica microparticles (C) to the core-shell rubber particles (D) is from 1/1 to 1/5 as (C)/(D). a cyanate ester resin (A); a curing agent or a curing accelerator (B); silica microparticles (C); and core-shell rubber particles (D), wherein
A welding process, in particular a cold metal transfer (CMT) welding process for build-up welding, with a consumable welding wire , which is fed to a welding torch guided by a welding robot , wherein a welding procedure is formed by cyclic alternating of an arc phase and a short circuit phase, and the welding wire is moved in the direction of a workpiece (W) during the arc phase up to contact with a workpiece (W) and subsequently, after formation of a short circuit, during the short circuit phase the wire feeding is reversed and the welding wire is moved away from the workpiece (W), and wherein to establish the welding procedure a plurality of welding parameters (P i ) are set, wherein during the welding procedure a preset melt-off efficiency (Ab) of the welding wire is kept substantially constant, by the average wire feed (v mean ) of the welding wire being controlled, wherein the latest wire feed (v(t)) is measured and the average measured wire feed (v mean ) is compared with a specified average wire feed (v soll_mean ) corresponding to the desired melt-off efficiency (Ab), characterized in that in accordance with the deviation (Δv) of the average measured wire feed (v mean ) from the specified average wire feed (v soll_mean ) as control deviation, the welding current (I), the free wire length of the welding wire , the distance of the contact tube of the welding torch from the workpiece (CTWD Contact Tip to Work Distance) and/or the inclination angle of the welding torch are changed as welding parameters (P i ).
A board for an electronic device , comprising: a protection circuit portion configured to be connected in series between a circuit portion including circuit elements of the electronic device and an exterior portion of a conductive material forming an exterior of the electronic device, the protection circuit portion is characterised in that it comprises: a varistor configured to intercept leakage current that flows from the circuit portion and prevent the leakage current from flowing to the exterior portion and to transfer an electrostatic component input thereto via the exterior portion to a ground of the circuit portion, and a conversion unit configured to reduce a voltage level of the electrostatic component and to transfer the voltage-reduced electrostatic component to the varistor, wherein the varistor and the conversion unit are connected in series, and wherein the conversion unit is one of a bead, a resistor, an inductor, and an RL circuit including a resistor and an inductor connected in parallel. a varistor configured to intercept leakage current that flows from the circuit portion and prevent the leakage current from flowing to the exterior portion and to transfer an electrostatic component input thereto via the exterior portion to a ground of the circuit portion, and a conversion unit configured to reduce a voltage level of the electrostatic component and to transfer the voltage-reduced electrostatic component to the varistor, wherein the varistor and the conversion unit are connected in series, and wherein the conversion unit is one of a bead, a resistor, an inductor, and an RL circuit including a resistor and an inductor connected in parallel.
A prosthetic valve including: a frame defining a circumference and a central longitudinal axis; a cover coupled to the frame, the cover including a constraint guide defining a tunnel extending transversely to the central longitudinal axis (Xf) of the frame, the tunnel extending between a first opening and a second opening in an outer surface of the cover; and a constraint slidably received in the tunnel, the constraint passing into the tunnel through the first opening and out of the tunnel through the second opening, the constraint extending around the frame to retain the frame in a diametrically compacted, delivery configuration. a frame defining a circumference and a central longitudinal axis; a cover coupled to the frame, the cover including a constraint guide defining a tunnel extending transversely to the central longitudinal axis (Xf) of the frame, the tunnel extending between a first opening and a second opening in an outer surface of the cover; and a constraint slidably received in the tunnel, the constraint passing into the tunnel through the first opening and out of the tunnel through the second opening, the constraint extending around the frame to retain the frame in a diametrically compacted, delivery configuration.
Container having a base and a surrounding wall extending upwards from the base, which surrounding wall forms a container opening lying above the base and at which two movable stacking rails are mounted such that both stacking rails in a first position expose the container opening and in a second position are located above the container opening , such that objects, in particular other types of containers or pallets, can be stacked on the container , characterised in that the two stacking rails have respectively two portions equipped with an anti-slide coating , wherein these four portions are disposed relatively to one another such that they are situated at the corners of an imaginary rectangle, wherein the long sides of the rectangle are between 900 mm and 1300 mm long and the short sides of the rectangle are between 500 mm and 1000 mm long, wherein the material at the surface of the anti-slide coating differs from the material of the supporting structure of the stacking rail and with respect to a Europool pallet the friction coefficient of the surface of the anti-slide coating is higher than the friction coefficient of the supporting structure of the stacking rail , wherein the anti-slide coating has a higher elasticity than the supporting structure of the stacking rail , and wherein the stacking rails in the first position are located at least partially also above an upper edge of the surrounding wall and the portions of the stacking rails equipped with the anti-slide coating are disposed such that they are turned at least partially upwards when the stacking rails are in the first position.
A method of wireless communication performed by a user equipment, UE, comprising: receiving configuration information for a two-step random access channel, RACH, procedure, wherein the configuration information identifies a plurality of physical uplink shared channel, PUSCH, configurations for a PUSCH of the two-step RACH procedure; and transmitting the PUSCH in accordance with a PUSCH configuration, of the plurality of PUSCH configurations, wherein the PUSCH configuration is selected based at least in part on a size of a payload of the PUSCH, and wherein a preamble of the PUSCH is used to indicate the selected PUSCH configuration, wherein transmitting the PUSCH in accordance with the PUSCH configuration comprises: transmitting the PUSCH using a particular RACH occasion for the preamble of the PUSCH, wherein the particular RACH occasion indicates the size of the payload or a PUSCH configuration of the payload. receiving configuration information for a two-step random access channel, RACH, procedure, wherein the configuration information identifies a plurality of physical uplink shared channel, PUSCH, configurations for a PUSCH of the two-step RACH procedure; and transmitting the PUSCH in accordance with a PUSCH configuration, of the plurality of PUSCH configurations, wherein the PUSCH configuration is selected based at least in part on a size of a payload of the PUSCH, and wherein a preamble of the PUSCH is used to indicate the selected PUSCH configuration, wherein transmitting the PUSCH in accordance with the PUSCH configuration comprises: transmitting the PUSCH using a particular RACH occasion for the preamble of the PUSCH, wherein the particular RACH occasion indicates the size of the payload or a PUSCH configuration of the payload.
A method of controlling an ion shutter of an IMS cell , the method comprising controlling a barrier voltage between a first shutter electrode and a second shutter electrode to open and close the shutter to allow ions of interest to pass through the shutter in a drift direction by varying both: (a) the voltage of the first shutter electrode; and (b) the voltage of the second shutter electrode; wherein the voltages of the first shutter electrode and the second shutter electrode are varied with respect to a spatially varying profile voltage of the IMS cell, wherein the spatially varying profile voltage provides an electric field that moves ions from the reaction region to a detector of the IMS cell, the voltage of the first shutter electrode is controlled to match the profile voltage prior to opening of the shutter, and the first shutter electrode lies between the reaction region of the IMS cell and the second shutter electrode. (a) the voltage of the first shutter electrode; and (b) the voltage of the second shutter electrode;
A control device of the hybrid vehicle comprising: an engine (ENG); a motor (M/G) that is arranged in the driving system between the engine (ENG) and the drive wheels (RL, RR) and carries out the start of the engine (ENG) and driving of the drive wheels (RL, RR); a mode switch means (CL1) that is arranged in the connecting section between the engine (ENG) and the motor (M/G) and switches the mode between the hybrid vehicle mode, in which the engine (ENG) and the motor (M/G) are taken as the driving sources, and the electrically driven vehicle mode, in which only the motor (M/G) is taken as the driving source; an automatic transmission (AT) that is included between the motor (M/G) and the drive wheels (RL, RR) and includes plural gear-shift steps with different gear-shift ratios; and a controller characterized in that the controller is adapted to carry out control for starting the engine (ENG) based on the start request when mode transition takes place from the electrically driven vehicle mode to the hybrid vehicle mode based on the start request, and, at the same time, to carry out the gear shift control for the transition of the gear-shift step of the automatic transmission (AT) from the current gear-shift step to the requested gear-shift step based on the gear shift request; and the controller is adapted to output a gear shift command prior to the engine start command when the simultaneous output prediction condition, which predicts the output of the gear shift request and the start request at the same time, is met. an engine (ENG); a motor (M/G) that is arranged in the driving system between the engine (ENG) and the drive wheels (RL, RR) and carries out the start of the engine (ENG) and driving of the drive wheels (RL, RR); a mode switch means (CL1) that is arranged in the connecting section between the engine (ENG) and the motor (M/G) and switches the mode between the hybrid vehicle mode, in which the engine (ENG) and the motor (M/G) are taken as the driving sources, and the electrically driven vehicle mode, in which only the motor (M/G) is taken as the driving source; an automatic transmission (AT) that is included between the motor (M/G) and the drive wheels (RL, RR) and includes plural gear-shift steps with different gear-shift ratios; and a controller characterized in that the controller is adapted to carry out control for starting the engine (ENG) based on the start request when mode transition takes place from the electrically driven vehicle mode to the hybrid vehicle mode based on the start request, and, at the same time, to carry out the gear shift control for the transition of the gear-shift step of the automatic transmission (AT) from the current gear-shift step to the requested gear-shift step based on the gear shift request; and the controller is adapted to output a gear shift command prior to the engine start command when the simultaneous output prediction condition, which predicts the output of the gear shift request and the start request at the same time, is met.
A method of manufacturing a package for an elongate medical device, comprising the steps of: forming a tube having an inner layer and an outer layer, the inner layer defining a lumen extending through at least a portion of the tube , the outer layer being formed from a Thermoplastic Polyurethane; wherein forming the tube having the inner layer and the outer layer is carried out via coextrusion and provides the outer layer with a tacky exterior surface; cooling the tube ; while an outer surface of the tube remains tacky following the extruding, and after cooling the tube , arranging the tube into a coiled configuration such that turns of the tube are placed in adjacent, spiral relationship; and contacting, after the tube is cooled, a portion of the tacky exterior surface along a first turn of the tube to a portion of the outer layer along a second turn of the tube to bond the first turn of the tube to the second turn of the tube , without applying heat or an adhesive, to maintain the coiled configuration of at least the first turn and the second turn of the tube . forming a tube having an inner layer and an outer layer, the inner layer defining a lumen extending through at least a portion of the tube , the outer layer being formed from a Thermoplastic Polyurethane; wherein forming the tube having the inner layer and the outer layer is carried out via coextrusion and provides the outer layer with a tacky exterior surface; cooling the tube ; while an outer surface of the tube remains tacky following the extruding, and after cooling the tube , arranging the tube into a coiled configuration such that turns of the tube are placed in adjacent, spiral relationship; and contacting, after the tube is cooled, a portion of the tacky exterior surface along a first turn of the tube to a portion of the outer layer along a second turn of the tube to bond the first turn of the tube to the second turn of the tube , without applying heat or an adhesive, to maintain the coiled configuration of at least the first turn and the second turn of the tube .
Vehicle tailgate made from plastic material, comprising an inner panel , an outer panel and a first glue bead applied between the inner panel and the outer panel so as to assemble the two panels by gluing and create a watertight interior space between the two panels, the outer panel comprising: - a skin having a visible surface; - a housing for receiving an optical unit which is delimited by a peripheral wall joined to the skin , and - a cavity delimited by both the skin and at least a part of the peripheral wall of the housing as well as walls projecting out from the housing towards the inner face of the skin , characterised in that at least one wall of the walls projecting out from the housing towards the inner face of the skin which participate in delimiting the cavity does not touch the inner face of the skin so that a gap exists between said at least one wall and the inner face of the skin , and in that a second glue bead is applied on a level with the gap in order to seal it and make the cavity watertight. - a skin having a visible surface; - a housing for receiving an optical unit which is delimited by a peripheral wall joined to the skin , and - a cavity delimited by both the skin and at least a part of the peripheral wall of the housing as well as walls projecting out from the housing towards the inner face of the skin , characterised in that at least one wall of the walls projecting out from the housing towards the inner face of the skin which participate in delimiting the cavity does not touch the inner face of the skin so that a gap exists between said at least one wall and the inner face of the skin , and in that a second glue bead is applied on a level with the gap in order to seal it and make the cavity watertight.