mhurhangee/patent-ind-claim-en huggingface dataset:
A control device for a vehicle drive device , a control target for the control device being the vehicle drive device including a rotating electrical machine (MG), the control device comprising: an actual rotational speed obtaining part that obtains an actual rotational speed (Nm), the actual rotational speed (Nm) being an actual rotational speed (Nm) of the rotating electrical machine (MG); an actual torque obtaining part that obtains actual torque (Tm), the actual torque (Tm) being actual torque (Tm) of the rotating electrical machine (MG); and a determining part that determines a state of the rotating electrical machine (MG), wherein the determining part determines that the state of the rotating electrical machine (MG) is a negative torque abnormality, when the actual torque (Tm) has a negative value smaller than a torque threshold value (THt) set based on a relationship between the actual rotational speed (Nm) and target torque (Tmt) of the rotating electrical machine (MG), the control device being characterised in that the torque threshold value (THt) decreases as the actual rotational speed (Nm) increases when the actual rotational speed (Nm) is positive, and does not change depending on the actual rotational speed (Nm) when the actual rotational speed (Nm) is negative. an actual rotational speed obtaining part that obtains an actual rotational speed (Nm), the actual rotational speed (Nm) being an actual rotational speed (Nm) of the rotating electrical machine (MG); an actual torque obtaining part that obtains actual torque (Tm), the actual torque (Tm) being actual torque (Tm) of the rotating electrical machine (MG); and a determining part that determines a state of the rotating electrical machine (MG), wherein the determining part determines that the state of the rotating electrical machine (MG) is a negative torque abnormality, when the actual torque (Tm) has a negative value smaller than a torque threshold value (THt) set based on a relationship between the actual rotational speed (Nm) and target torque (Tmt) of the rotating electrical machine (MG), the control device being characterised in that the torque threshold value (THt) decreases as the actual rotational speed (Nm) increases when the actual rotational speed (Nm) is positive, and does not change depending on the actual rotational speed (Nm) when the actual rotational speed (Nm) is negative.
A method for transmitting a physical layer convergence procedure, PLCP, protocol data unit, PPDU, the method comprising: generating, by a station, STA, , the PPDU including a legacy part and a High Efficiency Wireless, HEW, part, wherein the legacy part includes a legacy short training field, STF, and a legacy long training field, LTF, wherein the HEW part includes a HEW STF and a HEW LTF; and transmitting, by the STA , the PPDU, wherein the legacy part is generated by performing an inverse fast Fourier transform, IFFT, in a given channel bandwidth based on a first fast Fourier transform, FFT, size, wherein the HEW part is generated by performing an IFFT in the given channel bandwidth based on a second FFT size, and wherein the first FFT size is different from the second FFT size. generating, by a station, STA, , the PPDU including a legacy part and a High Efficiency Wireless, HEW, part, wherein the legacy part includes a legacy short training field, STF, and a legacy long training field, LTF, wherein the HEW part includes a HEW STF and a HEW LTF; and transmitting, by the STA , the PPDU, wherein the legacy part is generated by performing an inverse fast Fourier transform, IFFT, in a given channel bandwidth based on a first fast Fourier transform, FFT, size, wherein the HEW part is generated by performing an IFFT in the given channel bandwidth based on a second FFT size, and wherein the first FFT size is different from the second FFT size.
An antibody that specifically binds to the human NTB-A protein wherein the antibody comprises the three heavy chain complementarity determining regions of SEQ ID NO:3 and the 3 light chain CDRs of SEQ ID NO: 13 wherein the Kabat heavy chain CDRs are as set forth in SEQ ID NOs: 10 to 12 and the Kabat light chain CDRs are as set forth in SEQ ID NOs: 19-21, or wherein the IMGT heavy chain CDRs are as set forth in SEQ ID NOs: 22-24 and the IMGT light chain CDRs are as set forth in SEQ ID NOs: 25-27.
A method of filtering a decoded block of video data, the method comprising: assigning a set of n fixed filters to each class of a plurality of classes of blocks of a current picture of video data, wherein a fixed filter is used to predict filter coefficients of a filter to be applied to a decoded block of video data; for each class which uses a fixed filter, selecting a fixed filter of the set of n fixed filters, wherein a first fixed filter is selected for a first class, and a second fixed filter, different than the first fixed filter, is selected for a second class; for each class which uses a fixed filter, generating the set of filter coefficients to be applied to a decoded block of video data of the class, by adding filter coefficients of the selected fixed filter to a set of signaled filter coefficients for the class, wherein a common set of signaled filter coefficients is used for at least the first class and the second class; decoding a current block of a current picture of the video data; determining a class for the current block; selecting a generated set of filter coefficients that corresponds to the class for the current block; and filtering at least one pixel of the current block using the selected set of filter coefficients. assigning a set of n fixed filters to each class of a plurality of classes of blocks of a current picture of video data, wherein a fixed filter is used to predict filter coefficients of a filter to be applied to a decoded block of video data; for each class which uses a fixed filter, selecting a fixed filter of the set of n fixed filters, wherein a first fixed filter is selected for a first class, and a second fixed filter, different than the first fixed filter, is selected for a second class; for each class which uses a fixed filter, generating the set of filter coefficients to be applied to a decoded block of video data of the class, by adding filter coefficients of the selected fixed filter to a set of signaled filter coefficients for the class, wherein a common set of signaled filter coefficients is used for at least the first class and the second class; decoding a current block of a current picture of the video data; determining a class for the current block; selecting a generated set of filter coefficients that corresponds to the class for the current block; and filtering at least one pixel of the current block using the selected set of filter coefficients.
A laser machining method comprising: providing a plurality of optical fibers ; providing a condenser lens condensing a laser beam (L) of each of the optical fibers ; and providing a supply nozzle that supplies a material by injection, wherein the supply nozzle is arranged so as to penetrate the condenser lens , and the optical fibers are arranged on the periphery of the supply nozzle , characterized in that the material supplied from the supply nozzle is irradiated and thereby melted by the laser beams (L) from the optical fibers wherein the material is irradiated at a plurality of points along an axis between a nozzle tip port and a welding spot on an axis (O) of the condenser lens . providing a plurality of optical fibers ; providing a condenser lens condensing a laser beam (L) of each of the optical fibers ; and providing a supply nozzle that supplies a material by injection, wherein the supply nozzle is arranged so as to penetrate the condenser lens , and the optical fibers are arranged on the periphery of the supply nozzle , characterized in that the material supplied from the supply nozzle is irradiated and thereby melted by the laser beams (L) from the optical fibers wherein the material is irradiated at a plurality of points along an axis between a nozzle tip port and a welding spot on an axis (O) of the condenser lens .
A silicon-based coating composition comprising: from 1% (w/w) to 76% (w/w) polysilazane, from 0.2% (w/w) to 4% (w/w) polysiloxane, and from 1% (w/w) to 9% (w/w) polysilane of a formula (R 1 R 2 Si) n , wherein n is greater than 1, and wherein R 1 and R 2 are the same or different and are selected from the group consisting of alkyl and aromatic hydrocarbon, and optionally substituted with one or more amine, fluoro, alkoxy, mercapto, chloro, cyano, or allyl group; which composition after curing, is a mold release coating composition that is non-transferable, has a thickness ranging between 0.1 μm and 40 μm, a coefficient of friction between from 0.03 to 0.04 per ASTM D1894, and a hardness ranging between 4H and 9H per ASTM D3363. from 1% (w/w) to 76% (w/w) polysilazane, from 0.2% (w/w) to 4% (w/w) polysiloxane, and from 1% (w/w) to 9% (w/w) polysilane of a formula (R 1 R 2 Si) n , wherein n is greater than 1, and wherein R 1 and R 2 are the same or different and are selected from the group consisting of alkyl and aromatic hydrocarbon, and optionally substituted with one or more amine, fluoro, alkoxy, mercapto, chloro, cyano, or allyl group; which composition after curing, is a mold release coating composition that is non-transferable, has a thickness ranging between 0.1 μm and 40 μm, a coefficient of friction between from 0.03 to 0.04 per ASTM D1894, and a hardness ranging between 4H and 9H per ASTM D3363.
Apparatus for providing tactile sensation, comprising: a first magnet module comprising one or more magnetic elements ; a mounting arrangement configured to mount the first magnet module to a human or animal body; and a controller configured to control a tactile sensation applied by the first magnet module to the human or animal body by controlling a magnetic field applied to the first magnet module , wherein: the one or more magnetic elements of the first magnet module are rotatably mounted, and wherein: the controller is configured to control the tactile sensation applied to the human or animal body by the first magnetic module by using the magnetic field applied to the first magnet module to rotate one or more of the magnetic elements of the first magnet module ; the one or more magnetic elements are each cylindrically asymmetric about an axis of the rotation ; and the apparatus further comprises a second magnet module , wherein the controller is configured to control the magnetic field applied to the first magnet module by controlling at least one of the position and orientation of the second magnet module relative to the first magnet module . a first magnet module comprising one or more magnetic elements ; a mounting arrangement configured to mount the first magnet module to a human or animal body; and a controller configured to control a tactile sensation applied by the first magnet module to the human or animal body by controlling a magnetic field applied to the first magnet module , wherein: the one or more magnetic elements of the first magnet module are rotatably mounted, and wherein: the controller is configured to control the tactile sensation applied to the human or animal body by the first magnetic module by using the magnetic field applied to the first magnet module to rotate one or more of the magnetic elements of the first magnet module ; the one or more magnetic elements are each cylindrically asymmetric about an axis of the rotation ; and the apparatus further comprises a second magnet module , wherein the controller is configured to control the magnetic field applied to the first magnet module by controlling at least one of the position and orientation of the second magnet module relative to the first magnet module . the controller is configured to control the tactile sensation applied to the human or animal body by the first magnetic module by using the magnetic field applied to the first magnet module to rotate one or more of the magnetic elements of the first magnet module ; the one or more magnetic elements are each cylindrically asymmetric about an axis of the rotation ; and the apparatus further comprises a second magnet module , wherein the controller is configured to control the magnetic field applied to the first magnet module by controlling at least one of the position and orientation of the second magnet module relative to the first magnet module .
A cabin for a construction equipment, characterized in that the cabin comprises a leakage prevention apparatus , the leakage prevention apparatus comprising: a first plate coupled to a frame of the cabin ; a second plate extending from the first plate such as to face a lower windshield of the cabin; and a damper pressing the lower windshield, the damper displaceably coupled to the second plate to adjust an amount of force pressing the lower windshield. a first plate coupled to a frame of the cabin ; a second plate extending from the first plate such as to face a lower windshield of the cabin; and a damper pressing the lower windshield, the damper displaceably coupled to the second plate to adjust an amount of force pressing the lower windshield.
An RF catheter for treating hypertrophic cardiomyopathy, the RF catheter comprising: a body part constituting a catheter body made of a flexible and soft material; and an intraseptal insertion part provided at a distal part of the body part and having one or more electrodes , a tapered tip gradually becoming thinner toward an end thereof, and a guidewire lumen including a guidewire inserted therein, said RF ablation catheter being so configured, such that during hypertrophic cardiomyopathy treatment, the intraseptal insertion part is insertable into the interventricular septum along the guidewire, characterised in that said tapered tip is configured such that it is formed to function as a needle and penetrate the interventricular septum a body part constituting a catheter body made of a flexible and soft material; and an intraseptal insertion part provided at a distal part of the body part and having one or more electrodes , a tapered tip gradually becoming thinner toward an end thereof, and a guidewire lumen including a guidewire inserted therein, said RF ablation catheter being so configured, such that during hypertrophic cardiomyopathy treatment, the intraseptal insertion part is insertable into the interventricular septum along the guidewire, characterised in that said tapered tip is configured such that it is formed to function as a needle and penetrate the interventricular septum
A control device for an internal combustion engine including a supercharger, comprising: a compressor of the supercharger installed in an intake passage of the internal combustion engine ; an EGR device that recirculates part of an exhaust gas to an intake passage from an exhaust passage of the internal combustion engine , as an EGR gas; a throttle valve that is installed downstream of the compressor in the intake passage; an ISC passage that connects an upstream side of the compressor and a downstream side of the throttle valve of the intake passage ; an ISC valve that regulates an amount of air that flows in the ISC passage by being controlled to a predetermined opening degree; characterised by control means executing valve opening control that makes an opening degree of the ISC valve a maximum opening degree larger than a reference opening degree, when: a requested torque required from the internal combustion engine is smaller than a predicted generation torque calculated in accordance with a control target value, and an intake pressure downstream of the throttle valve in the intake passage is larger than an intake pressure at the upstream side of the compressor in the intake passage ; and means for prohibiting opening of an EGR valve (64; 70) of the EGR device, during execution of the valve opening control. a compressor of the supercharger installed in an intake passage of the internal combustion engine ; an EGR device that recirculates part of an exhaust gas to an intake passage from an exhaust passage of the internal combustion engine , as an EGR gas; a throttle valve that is installed downstream of the compressor in the intake passage; an ISC passage that connects an upstream side of the compressor and a downstream side of the throttle valve of the intake passage ; an ISC valve that regulates an amount of air that flows in the ISC passage by being controlled to a predetermined opening degree; characterised by control means executing valve opening control that makes an opening degree of the ISC valve a maximum opening degree larger than a reference opening degree, when: a requested torque required from the internal combustion engine is smaller than a predicted generation torque calculated in accordance with a control target value, and an intake pressure downstream of the throttle valve in the intake passage is larger than an intake pressure at the upstream side of the compressor in the intake passage ; and means for prohibiting opening of an EGR valve (64; 70) of the EGR device, during execution of the valve opening control. a requested torque required from the internal combustion engine is smaller than a predicted generation torque calculated in accordance with a control target value, and an intake pressure downstream of the throttle valve in the intake passage is larger than an intake pressure at the upstream side of the compressor in the intake passage ; and means for prohibiting opening of an EGR valve (64; 70) of the EGR device, during execution of the valve opening control.
A display apparatus comprising: a display panel being curved in a first direction (DR1) with a first degree of curvature and arranged substantially along a second direction (DR2) crossing the first direction (DR1); a first accommodating frame which forms a bottom chassis and which comprises a bottom portion curved in the first direction (DR1) at the first curvature and extending parallel to the second direction (DR2) as well as sidewalls which extend upwards from the edges of the bottom portion , wherein the first accommodating frame is curved in the first direction (DR1) with a first degree of curvature and is arranged substantially parallel to the second direction (DR2), and further wherein the display panel is set within the first accommodating frame ; a plurality of flexible circuit boards connected to one side portion of the display panel ; and a printed circuit board connected to the flexible circuit boards ; characterized in that a depressed portion is integrally formed with the bottom portion of the first accommodating frame , wherein the printed circuit board is disposed underneath the bottom portion on the lowest surface (S2) of the depressed portion , and the lowest surface (S2) of the depressed portion includes a curved surface that is curved in the first direction (DR1) with a second degree of curvature that is smaller than the first degree of curvature. a display panel being curved in a first direction (DR1) with a first degree of curvature and arranged substantially along a second direction (DR2) crossing the first direction (DR1); a first accommodating frame which forms a bottom chassis and which comprises a bottom portion curved in the first direction (DR1) at the first curvature and extending parallel to the second direction (DR2) as well as sidewalls which extend upwards from the edges of the bottom portion , wherein the first accommodating frame is curved in the first direction (DR1) with a first degree of curvature and is arranged substantially parallel to the second direction (DR2), and further wherein the display panel is set within the first accommodating frame ; a plurality of flexible circuit boards connected to one side portion of the display panel ; and a printed circuit board connected to the flexible circuit boards ; characterized in that a depressed portion is integrally formed with the bottom portion of the first accommodating frame , wherein the printed circuit board is disposed underneath the bottom portion on the lowest surface (S2) of the depressed portion , and the lowest surface (S2) of the depressed portion includes a curved surface that is curved in the first direction (DR1) with a second degree of curvature that is smaller than the first degree of curvature.
A surface coated cutting tool having surfaces including a rake face and a flank face and a cutting edge defined by a boundary portion between the rake face and the flank face, wherein the boundary portion consists of a ridgeline defining a boundary between the rake face and the flank face and a portion in the vicinity of the ridgeline in the rake face and the flank face, the surface coated cutting tool comprising: a substrate; and a coating which covers the surfaces of the substrate, the coating having a TiAlN layer having an NaCl type crystal structure, and relation of 0.65 < XR ≤ 0.9, 0.65 < XF ≤ 0.9, 0.4 ≤ XE ≤ 0.7, XR-XE ≥ 0.2, and XF-XE ≥ 0.2 being satisfied, with a composition of the TiAlN layer in a cutting edge region located in the cutting edge being expressed as Ti 1-XE Al XE N, a composition of the TiAlN layer in a rake face region located in the rake face being expressed as Ti 1-XR Al XR N, and a composition of the TiAlN layer in a flank face region located in the flank face being expressed as Ti 1-XF Al XF N. a substrate; and a coating which covers the surfaces of the substrate, the coating having a TiAlN layer having an NaCl type crystal structure, and relation of 0.65 < XR ≤ 0.9, 0.65 < XF ≤ 0.9, 0.4 ≤ XE ≤ 0.7, XR-XE ≥ 0.2, and XF-XE ≥ 0.2 being satisfied, with a composition of the TiAlN layer in a cutting edge region located in the cutting edge being expressed as Ti 1-XE Al XE N, a composition of the TiAlN layer in a rake face region located in the rake face being expressed as Ti 1-XR Al XR N, and a composition of the TiAlN layer in a flank face region located in the flank face being expressed as Ti 1-XF Al XF N.
A vehicle electrical system comprising: a bus arrangement comprising a plurality of buses (101 - 106); a first control module coupled to a first subset of the plurality of buses, the first subset including a first bus , a second bus , a third bus , and a fourth bus ; a second control module coupled to a second subset of the plurality of buses, the second subset including the third bus, the fourth bus, a fifth bus , and a sixth bus ; a third control module coupled to a third subset of the plurality of buses, the third subset including the first bus, the second bus, the fifth bus and the sixth bus. a first control system coupled to a fourth subset of the plurality of buses; and a second control system coupled to a fifth subset of the plurality of buses, wherein: the first, second, third, fourth and fifth subsets are different from one another; the fourth subset comprises the first bus and the third bus; and the fifth subset comprises the second bus and the fourth bus. a bus arrangement comprising a plurality of buses (101 - 106); a first control module coupled to a first subset of the plurality of buses, the first subset including a first bus , a second bus , a third bus , and a fourth bus ; a second control module coupled to a second subset of the plurality of buses, the second subset including the third bus, the fourth bus, a fifth bus , and a sixth bus ; a third control module coupled to a third subset of the plurality of buses, the third subset including the first bus, the second bus, the fifth bus and the sixth bus. a first control system coupled to a fourth subset of the plurality of buses; and a second control system coupled to a fifth subset of the plurality of buses, wherein: the first, second, third, fourth and fifth subsets are different from one another; the fourth subset comprises the first bus and the third bus; and the fifth subset comprises the second bus and the fourth bus. the first, second, third, fourth and fifth subsets are different from one another; the fourth subset comprises the first bus and the third bus; and the fifth subset comprises the second bus and the fourth bus.