mhurhangee/ep-ind-claims huggingface dataset:
A control apparatus for a four wheel drive vehicle, the control apparatus being provided in a four wheel drive vehicle including a pair of right and left main driving wheels (104R, 104L) and a pair of right and left auxiliary driving wheels (105R, 105L), the control apparatus controlling a transmission torque of a driving force transmission apparatus provided between one of a pair of output members (53R, 53L) of a differential apparatus at an auxiliary driving wheel side and one of the right and left auxiliary driving wheels, and the control apparatus comprising: a first computation unit that computes a transmission torque to be transmitted to the one of the auxiliary driving wheels by the driving force transmission apparatus, based on a traveling state of the four wheel drive vehicle; and a second computation unit that corrects the transmission torque computed by the first computation unit, if a difference between rotation speeds of the output members of the differential apparatus is larger than or equal to a predetermined value, the control apparatus being characterized in that the second computation unit performs a correction so as to reduce the transmission torque computed by the first computation unit, if a condition of V1 > V2 is satisfied where V1 is the rotation speed of the one of the output members of the differential apparatus and V2 is the rotation speed of the other of the output members, and the second computation unit performs the correction so as to increase the transmission torque computed by the first computation unit, if a condition of V1 < V2 is satisfied. a first computation unit that computes a transmission torque to be transmitted to the one of the auxiliary driving wheels by the driving force transmission apparatus, based on a traveling state of the four wheel drive vehicle; and a second computation unit that corrects the transmission torque computed by the first computation unit, if a difference between rotation speeds of the output members of the differential apparatus is larger than or equal to a predetermined value, the control apparatus being characterized in that the second computation unit performs a correction so as to reduce the transmission torque computed by the first computation unit, if a condition of V1 > V2 is satisfied where V1 is the rotation speed of the one of the output members of the differential apparatus and V2 is the rotation speed of the other of the output members, and the second computation unit performs the correction so as to increase the transmission torque computed by the first computation unit, if a condition of V1 < V2 is satisfied.
A profile for attaching a covering material to a tensioning bow of a hood of a convertible vehicle, said profile comprising at least one holding device integrally formed with the profile, characterised in that a plurality of holding devices are provided for the profile and each of said holding devices is provided in a recess of the profile.
A bistable valve assembly comprising: an interior cavity (32,131,2116); a first pressure source (12,132) connected to the interior cavity; a second pressure source (14,134) connected to the interior cavity; a first post (28,2104) connected to the interior cavity at a first end of the interior cavity; a second post (30,2106) connected to the interior cavity at a second end of the interior cavity; a magnetic shuttle (16,42,78,2102) located within the interior cavity; a first electromagnetic coil disposed about the first post; a second electromagnetic coil disposed about the second post; wherein when the first electromagnetic coil is energized, the first electromagnetic coil supplies a magnetic charge to the first post and actuates the magnetic shuttle to move towards the first end of the interior cavity towards the first post and seal the first pressure source, and wherein when the second electromagnetic coil is energized, the second electromagnetic coil supplies a magnetic charge to the second post and actuates the magnetic shuttle to move towards the second end of the interior cavity towards the second post and seal the second pressure source, wherein the first post (28,2104) is in fluid communication with the first pressure source and the second post is in fluid communication with the second pressure source; characterised in that the magnetic shuttle includes a carrier and two magnets (58,2124,2125) oriented back to back with their closest corresponding faces having the same polarity. an interior cavity (32,131,2116); a first pressure source (12,132) connected to the interior cavity; a second pressure source (14,134) connected to the interior cavity; a first post (28,2104) connected to the interior cavity at a first end of the interior cavity; a second post (30,2106) connected to the interior cavity at a second end of the interior cavity; a magnetic shuttle (16,42,78,2102) located within the interior cavity; a first electromagnetic coil disposed about the first post; a second electromagnetic coil disposed about the second post; wherein when the first electromagnetic coil is energized, the first electromagnetic coil supplies a magnetic charge to the first post and actuates the magnetic shuttle to move towards the first end of the interior cavity towards the first post and seal the first pressure source, and wherein when the second electromagnetic coil is energized, the second electromagnetic coil supplies a magnetic charge to the second post and actuates the magnetic shuttle to move towards the second end of the interior cavity towards the second post and seal the second pressure source, wherein the first post (28,2104) is in fluid communication with the first pressure source and the second post is in fluid communication with the second pressure source; characterised in that the magnetic shuttle includes a carrier and two magnets (58,2124,2125) oriented back to back with their closest corresponding faces having the same polarity.
A method, comprising: receiving an activation signal at a semiconductor device; generating an output power signal at the semiconductor device in response to receiving the activation signal, the output power signal having a duty cycle; providing the output power signal to a load coupled to the semiconductor device, the output power signal providing power to the load, wherein an amount of power provided to the load is based on the duty cycle of the output power signal; detecting a temperature above a threshold in the semiconductor device; adjusting the duty cycle of the output power signal using at least one of a current limiter and a power limiter. integrated in the semiconductor device, wherein when a temperature above said threshold temperature is detected, said adjustment places the semiconductor device in a self-limiting mode in which at least one of a reduced amount of current and a reduced amount of power is provided to the load; characterized in that adjusting the duty cycle of the output power signal comprises: measuring at least one of a power level and a current: level of the output power signal; and adjusting the duty cycle of the output power signal based on at least one of the measured power level and the measured current level. receiving an activation signal at a semiconductor device; generating an output power signal at the semiconductor device in response to receiving the activation signal, the output power signal having a duty cycle; providing the output power signal to a load coupled to the semiconductor device, the output power signal providing power to the load, wherein an amount of power provided to the load is based on the duty cycle of the output power signal; detecting a temperature above a threshold in the semiconductor device; adjusting the duty cycle of the output power signal using at least one of a current limiter and a power limiter. integrated in the semiconductor device, wherein when a temperature above said threshold temperature is detected, said adjustment places the semiconductor device in a self-limiting mode in which at least one of a reduced amount of current and a reduced amount of power is provided to the load; characterized in that adjusting the duty cycle of the output power signal comprises: measuring at least one of a power level and a current: level of the output power signal; and adjusting the duty cycle of the output power signal based on at least one of the measured power level and the measured current level. measuring at least one of a power level and a current: level of the output power signal; and adjusting the duty cycle of the output power signal based on at least one of the measured power level and the measured current level.
Vehicle seat console having at least one vehicle-mounted guide element (32, 34) and at least one seat-mounted guide element (22, 24), which is arranged parallel to the vehicle-mounted guide element (32, 34), and at least one longitudinal-adjustment device (41, 41'), which is activated by a drive device and is configured to effect relative adjustment between the vehicle-mounted guide element (32, 34) and the seat-mounted guide element (22, 24), wherein the longitudinal-adjustment device (41, 41') has a rack (36, 38) and a gearwheel (43, 45), which is in meshing engagement with the rack, characterized in that the teeth (43', 45') of the gearwheel (43, 45) and/or the teeth (37', 39') of at least one portion of the rack (36, 38) consist of materials with different levels of shear strength, such that a weak-point region is formed between the gearwheel (43, 45) and the rack (36, 38), in which desired material failure occurs in the event of overloading.
A method for creating a laminate composite structural component comprising: placing a dry fabric over a tool, the tool comprising a contour of at least a portion of the laminate composite structural component; pressing a first resin film over the dry fabric while the dry fabric is draped over the tool to create an outer layer of the laminate composite structural component; repeating the placing and pressing process until a desired thickness of the outer layer is achieved; compressing a second resin film and a dry fiber fabric between two rollers to tack the second resin film to the dry fiber fabric to create a resin-fabric sheet comprising a resin film layer and an dry fiber fabric layer; cutting the resin-fabric sheet to a pre-determined shape to create at least one resin-fabric preform; and draping the first resin-fabric preform over at least a portion of the outer layer, wherein one or more edges of the first resin-fabric preform overlap the outer layer to create an internal edge. placing a dry fabric over a tool, the tool comprising a contour of at least a portion of the laminate composite structural component; pressing a first resin film over the dry fabric while the dry fabric is draped over the tool to create an outer layer of the laminate composite structural component; repeating the placing and pressing process until a desired thickness of the outer layer is achieved; compressing a second resin film and a dry fiber fabric between two rollers to tack the second resin film to the dry fiber fabric to create a resin-fabric sheet comprising a resin film layer and an dry fiber fabric layer; cutting the resin-fabric sheet to a pre-determined shape to create at least one resin-fabric preform; and draping the first resin-fabric preform over at least a portion of the outer layer,
A measuring tool comprising: a stationary member; a movable member arranged movable with respect to the stationary member; a detector that is adapted to detect a displacement of the movable member with respect to the stationary member; a computing section that is adapted to compute a measurement value from the displacement detected by the detector; a display that is adapted to display the measurement value computed by the computing section; and an operating section that is adapted to give an instruction to the computing section; wherein the computing section, which comprises a storage that stores the displacement detected by the detector, carries out: a preset operation in which in response to the instruction given by the operating section the displacement detected by the detector is stored in the storage as a measurement reference value and a measurement value computing operation in which a measurement value is computed based on a difference between the present displacement and the measurement reference value stored in the storage, and in the preset operation, a judgment operation in which the movable member is judged to be stationary with respect to the stationary member when a variation of the displacement detected by the detector at an interval of a predetermined time has continuously been within a permissible range for a predetermined time is carried out, and when the movable member is judged to be stationary with respect to the stationary member in the judgment operation, the displacement is stored in the storage as the measurement reference value.
A method, by a management controller (520, 620), for dynamic reconfiguration of at least one peripheral bus switch of a system, comprising: detecting whether a server system is connected to each peripheral bus slot of the system; and selecting a peripheral bus switch topology for the at least one peripheral bus switch based on the detecting; characterized in further comprising setting each port of the at least one peripheral bus switch to either an upstream port configuration or a downstream port configuration, based on the peripheral bus switch topology. detecting whether a server system is connected to each peripheral bus slot of the system; and selecting a peripheral bus switch topology for the at least one peripheral bus switch based on the detecting; characterized in further comprising setting each port of the at least one peripheral bus switch to either an upstream port configuration or a downstream port configuration, based on the peripheral bus switch topology.
A direct type lighting system for a display comprising at least a plurality of light sources regularly disposed, a reflector and a light control member for controlling an outgoing direction and diffusing light when the light from the reflector passes therethrough, wherein the reflector, the light sources and the light control member are sequentially disposed from the light incident side to the light outgoing side, wherein the light control member includes an incident plane for mainly receiving light and an exit plane having a plurality of convex structures for mainly emitting light, wherein the distance between any light source and the proximate other light source is D, the distance between the light source and the light control member is H, and the total light transmittance of the light incident on any point on the incident plane at an angle α=Tan -1 {(D/2)/H} with the normal direction of the incident plane is more than 50% and 1.05-3 times as many as the total light transmittance when the light is incident on the point on the incident plane from the normal direction.
Method for traction control of a vehicle having at least one driven wheel (R, L), at least one wheel-specific characteristic (ω R, ω L) being used for the proportioning and/or modulation of a brake pressure of a wheel brake of a driven wheel (R, L) and for influencing a drive torque of a drive engine, in which at least one controller serves for generating an output manipulated variable for the wheel brake and an output manipulated variable for the drive engine as a function of a control deviation (e) from a target size of the wheel-specific characteristic (ω P, ω L), characterized in that the controller comprises at least two linear sub-controllers (C L, C H; C LL, C LH, C HL, C HH), each specially designed for different coefficient of friction situations, which as a function of the control deviation (e) each determine a manipulated variable suggestion (u L, u H; u LL, u LH, u HL, u HH), which comprises a manipulated variable suggestion for the wheel brake and a manipulated variable suggestion for the drive engine and wherein the sub-controllers are designed in such a manner that the wheel drive forces of the driven wheel(s) have an influence on the control strategy, and that from the manipulated variable suggestions (u L, u H; u LL, u LH, u HL, u HH) of the sub-controllers (C L, C H; C LL, C LH, C HL, C HH) an output manipulated variable (u), which comprises an output manipulated variable for the wheel brake and an output manipulated variable for the drive engine, is determined by weighted addition.
A computer-implemented method for performing description mining for a concept, the method comprising: acquiring a plurality of reference descriptions, wherein each of the plurality of reference descriptions is associated with a user interface, Ul, element corresponding to a type of III element represented by the concept; generating, based on the plurality of reference descriptions, at least one of a local description for the concept and a global description for the concept, wherein the local description for the concept comprises a description component that is specific to a respective UI, and wherein the global description for the concept comprises a description component that is not specific to a UI; and storing the at least one of generated local description and global description such that it is associated with a concept identifier corresponding to the concept. acquiring a plurality of reference descriptions, wherein each of the plurality of reference descriptions is associated with a user interface, Ul, element corresponding to a type of III element represented by the concept; generating, based on the plurality of reference descriptions, at least one of a local description for the concept and a global description for the concept, wherein the local description for the concept comprises a description component that is specific to a respective UI, and wherein the global description for the concept comprises a description component that is not specific to a UI; and storing the at least one of generated local description and global description such that it is associated with a concept identifier corresponding to the concept.
Method for creating a fold preparation pattern that assigns cutting, trimming and/or clipping patterns to a signature in accurate positions, characterized in that job-specific signature characteristics (f 1... f n) are supplied to a computer, and that job-specific cutting requirements (e 1...e m) are determined by means of general cutting requirements (S 1...S m) that are assigned to respective general signature characteristics (C 1...C n) in the computer and using the job-specific signature characteristics (f 1... f n), and that the computer accesses a database containing cutting, trimming and clipping patterns (11, 12, 13) and combines the cutting, trimming and clipping patterns (11, 12, 13) as a fold preparation pattern in accordance with the job-specific cutting requirements (e 1...e m).
A composition comprising a heterophasic propylene copolymer, a propylene homopolymer and a polyolefin-based elastomer, wherein the heterophasic propylene copolymer consists of a propylene-based matrix, wherein the propylene-based matrix consists of a propylene homopolymer and/or a propylene copolymer consisting of at least 90 wt% of propylene monomer units and at most 10 wt% of ethylene and/or a- olefin monomer units, based on the total weight of the propylene-based matrix and a dispersed ethylene-α-olefin copolymer, wherein the sum of the total amount of propylene-based matrix and total amount of the dispersed ethylene-α-olefin copolymer in the heterophasic propylene copolymer is 100 wt%, the polyolefin-based elastomer has a melt flow index of 15 to 50 dg/min measured according to ASTM D1238 with a 2.16 kg load at 190 °C, the total amount of and with respect to the total composition is 20.0 to 26.0 wt% and the composition has a melt flow index as measured according to ISO1133-1:2011 with a 2.16kg load at 230°C of 25 to 60 dg/min. the heterophasic propylene copolymer consists of a propylene-based matrix, wherein the propylene-based matrix consists of a propylene homopolymer and/or a propylene copolymer consisting of at least 90 wt% of propylene monomer units and at most 10 wt% of ethylene and/or a- olefin monomer units, based on the total weight of the propylene-based matrix and a dispersed ethylene-α-olefin copolymer, wherein the sum of the total amount of propylene-based matrix and total amount of the dispersed ethylene-α-olefin copolymer in the heterophasic propylene copolymer is 100 wt%, the polyolefin-based elastomer has a melt flow index of 15 to 50 dg/min measured according to ASTM D1238 with a 2.16 kg load at 190 °C, the total amount of and with respect to the total composition is 20.0 to 26.0 wt% and the composition has a melt flow index as measured according to ISO1133-1:2011 with a 2.16kg load at 230°C of 25 to 60 dg/min.
An air conditioning ventilation system comprising: an air conditioner; a ventilator; an indoor environment sensor configured to detect an indoor environment; and a control unit configured to control operations of the air conditioner and the ventilator, wherein the control unit is configured to cause the air conditioner to perform a compensation operation for compensating for a change in indoor temperature and/or humidity due to a ventilation operation prior to the ventilation operation to be performed by the ventilator, characterized in that the control unit is configured to determine a start timing of the compensation operation based on a detection value of the indoor environment sensor to start the compensation operation when the detection value of the indoor environment sensor exceeds a second threshold value, and determine a start timing of the ventilation operation based on a detection value of the indoor environment sensor to start the ventilation operation when the detection value of the indoor environment sensor exceeds a first threshold value higher than the second threshold value. an air conditioner; a ventilator; an indoor environment sensor configured to detect an indoor environment; and a control unit configured to control operations of the air conditioner and the ventilator, wherein the control unit is configured to cause the air conditioner to perform a compensation operation for compensating for a change in indoor temperature and/or humidity due to a ventilation operation prior to the ventilation operation to be performed by the ventilator, characterized in that the control unit is configured to determine a start timing of the compensation operation based on a detection value of the indoor environment sensor to start the compensation operation when the detection value of the indoor environment sensor exceeds a second threshold value, and determine a start timing of the ventilation operation based on a detection value of the indoor environment sensor to start the ventilation operation when the detection value of the indoor environment sensor exceeds a first threshold value higher than the second threshold value. determine a start timing of the compensation operation based on a detection value of the indoor environment sensor to start the compensation operation when the detection value of the indoor environment sensor exceeds a second threshold value, and determine a start timing of the ventilation operation based on a detection value of the indoor environment sensor to start the ventilation operation when the detection value of the indoor environment sensor exceeds a first threshold value higher than the second threshold value.