mhurhangee/ep-ind-claims huggingface dataset:
A computer system comprising: a central processing unit arranged to support a plurality of operating systems (108, 109, 110), each operating system including a GPU driver (114, 115, 116); a graphics processing unit including GPU firmware for controlling the execution of tasks at the graphics processing unit and, for each operating system: a firmware state register (201, 203, 205, 207) modifiable by the GPU firmware and indicating whether the GPU firmware is online; and an OS state register (202, 204, 206, 208) modifiable by the GPU driver of the respective operating system and indicating whether the GPU driver is online; and a memory management unit configured to mediate access to the registers of the GPU such that each operating system can access its respective registers but not those of other operating systems; wherein: one of the GPU drivers at the plurality of operating systems is a host GPU driver configured to initialise the GPU and bring the GPU firmware online; each GPU driver is configured to submit tasks for processing at the GPU only if its respective firmware state register indicates that the GPU firmware is online; and the GPU is configured to process tasks for an operating system if the respective OS state register of that operating system indicates that the GPU driver is online. a central processing unit arranged to support a plurality of operating systems (108, 109, 110), each operating system including a GPU driver (114, 115, 116); a graphics processing unit including GPU firmware for controlling the execution of tasks at the graphics processing unit and, for each operating system: a firmware state register (201, 203, 205, 207) modifiable by the GPU firmware and indicating whether the GPU firmware is online; and an OS state register (202, 204, 206, 208) modifiable by the GPU driver of the respective operating system and indicating whether the GPU driver is online; and a firmware state register (201, 203, 205, 207) modifiable by the GPU firmware and indicating whether the GPU firmware is online; and an OS state register (202, 204, 206, 208) modifiable by the GPU driver of the respective operating system and indicating whether the GPU driver is online; a memory management unit configured to mediate access to the registers of the GPU such that each operating system can access its respective registers but not those of other operating systems; one of the GPU drivers at the plurality of operating systems is a host GPU driver configured to initialise the GPU and bring the GPU firmware online; each GPU driver is configured to submit tasks for processing at the GPU only if its respective firmware state register indicates that the GPU firmware is online; and the GPU is configured to process tasks for an operating system if the respective OS state register of that operating system indicates that the GPU driver is online.
A method for producing a custom saddle shell, comprising the following steps: determining an individual extent of a prostate and producing the custom saddle shell having a recess for accommodating and relieving a genital region that comprises the prostate, wherein the dimension and/or geometry of the recess is determined on the basis of the prostate. determining an individual extent of a prostate and producing the custom saddle shell having a recess for accommodating and relieving a genital region that comprises the prostate, wherein the dimension and/or geometry of the recess is determined on the basis of the prostate.
Device for lifting and lowering a roof supported on telescopic stakes of a utility vehicle, wherein one stake has a housing element, a lifting element that is telescopic relative to the housing element, and a knee lever having a first hinged lever member foldable between a first folding and a first unfolding position and hinged to the housing element, and a second lever member connectable with the lifting element, wherein the knee lever is designed in such a way that lifting the lifting element can be realised with a folding movement from the folding and unfolding position, wherein the stake further has a first actuation element, with the actuation of which the lifting element can be lowered, and wherein the first lever member has a second actuation element for actuating the first actuation element, characterised in that the first and the second actuation element (14, 18) are arranged in such a way that the first actuation element is already actuated shortly before reaching the folding position by the second actuation element during a folding movement of the first lever member from the first unfolding position into the first folding position.
A multi-layer electronic component comprising: an active stack section constituted from a plurality of dielectric material layers including lead and a plurality of internal electrodes which are stacked alternately one on another; an upper inactive section provided on the top surface of the active stack section in the stacking direction thereof; and a lower inactive section provided on the bottom surface of the active stack section in the stacking direction thereof, characterized in that dielectric constant ε1 of a first upper dielectric material layer including lead disposed between an uppermost inner electrode that is located at the top and a second upper internal electrode located next to the uppermost inner electrode and dielectric constant ε2 of a first lower dielectric material layer including lead disposed between a lowermost inner electrode that is located at the bottom and a second lower internal electrode located next to the lowermost inner electrode are larger than dielectric constant ε3 of a central dielectric material layer including lead disposed at the center of the active stack. an active stack section constituted from a plurality of dielectric material layers including lead and a plurality of internal electrodes which are stacked alternately one on another; an upper inactive section provided on the top surface of the active stack section in the stacking direction thereof; and a lower inactive section provided on the bottom surface of the active stack section in the stacking direction thereof, characterized in that dielectric constant ε1 of a first upper dielectric material layer including lead disposed between an uppermost inner electrode that is located at the top and a second upper internal electrode located next to the uppermost inner electrode and dielectric constant ε2 of a first lower dielectric material layer including lead disposed between a lowermost inner electrode that is located at the bottom and a second lower internal electrode located next to the lowermost inner electrode are larger than dielectric constant ε3 of a central dielectric material layer including lead disposed at the center of the active stack.
A vehicle transmission (320, 720) comprising: a differential comprising a carrier and a single torque receiver in the form of a drive gear fixed to the carrier; a first torque input having a first torque transmitter in the form of a first gear directly connected to the at least one torque receiver of the carrier by being in concurrent meshing engagement with the drive gear; a second torque input having a second torque transmitter in the form of a second gear directly connected to the at least one torque receiver of the carrier by being in concurrent meshing engagement with the drive gear, the first torque input comprising a first torque source in the form of a hydraulic motor and the second torque input comprising a second torque source in the form of a motor, the first torque source having an output shaft indirectly supporting the first gear and the second torque source having an output shaft directly supporting the second gear, characterized in that the first gear has a smaller diameter as compared to the second gear, and that a clutch is configured to selectively couple the first motor to the first gear, the clutch having an input side directly connected to the output shaft of the first torque source and an output side directly connected to the first gear, the clutch configured to connect the first torque source to the first gear at low speed and high torque conditions and to automatically disconnect the first gear from the first torque source at high speed, low torque operating conditions, when carrier is being rotationally driven by the second torque input. a first torque input having a first torque transmitter in the form of a first gear directly connected to the at least one torque receiver of the carrier by being in concurrent meshing engagement with the drive gear; a second torque input having a second torque transmitter in the form of a second gear directly connected to the at least one torque receiver of the carrier by being in concurrent meshing engagement with the drive gear, the first torque input comprising a first torque source in the form of a hydraulic motor and the second torque input comprising a second torque source in the form of a motor, the first torque source having an output shaft indirectly supporting the first gear and the second torque source having an output shaft directly supporting the second gear, characterized in that the first gear has a smaller diameter as compared to the second gear, and that a clutch is configured to selectively couple the first motor to the first gear, the clutch having an input side directly connected to the output shaft of the first torque source and an output side directly connected to the first gear, the clutch configured to connect the first torque source to the first gear at low speed and high torque conditions and to automatically disconnect the first gear from the first torque source at high speed, low torque operating conditions, when carrier is being rotationally driven by the second torque input.
A semiconductor device, comprising: a heat dissipating base; a patterned insulating substrate attached to the heat dissipating base with a solder therebetween; at least two semiconductor chips attached to a conductive pattern of the patterned insulating substrate with a solder therebetween; at least two first conductors each of which is attached to a respective semiconductor chip with a solder therebetween; a resin case attached to the heat dissipating base by an adhesive; and at least two second conductors attached to a respective one of the first conductors by laser welding, characterized in that the at least two second conductors, each of which is formed by rolling and has stripe-shaped rolling traces formed on a surface thereof in a rolling direction, is disposed on the respective first conductors such that the rolling traces of the at least two second conductors are arranged in a same direction. a heat dissipating base; a patterned insulating substrate attached to the heat dissipating base with a solder therebetween; at least two semiconductor chips attached to a conductive pattern of the patterned insulating substrate with a solder therebetween; at least two first conductors each of which is attached to a respective semiconductor chip with a solder therebetween; a resin case attached to the heat dissipating base by an adhesive; and at least two second conductors attached to a respective one of the first conductors by laser welding, characterized in that the at least two second conductors, each of which is formed by rolling and has stripe-shaped rolling traces formed on a surface thereof in a rolling direction, is disposed on the respective first conductors such that the rolling traces of the at least two second conductors are arranged in a same direction.
A rotation cover opening/closing mechanism comprising: a cover that is plate-shaped, and that is configured to close an opening portion (11, 11a) formed in a part of an upper surface of a device body; a shaft body, one end of the shaft body being perpendicularly fixed to the cover, and at least a part of the shaft body at the other end of the shaft body being inserted into the device body; and a turning mechanism that is configured to rotatably support the shaft body inside the device body to allow turning of the cover around the shaft body in a plane parallel with the upper surface of the device body, wherein the turning mechanism includes a limitation portion that is configured to limit a rotation angle of the shaft body to a fixed range such that the cover is configured to turn between a cover closing position where the cover closes the opening portion (11, 11a), and a cover opening position where the cover opens the opening portion (11, 11a), characterized in that the cover is configured to turn between the cover closing position and the cover opening position in a spiral shape. a cover that is plate-shaped, and that is configured to close an opening portion (11, 11a) formed in a part of an upper surface of a device body; a shaft body, one end of the shaft body being perpendicularly fixed to the cover, and at least a part of the shaft body at the other end of the shaft body being inserted into the device body; and a turning mechanism that is configured to rotatably support the shaft body inside the device body to allow turning of the cover around the shaft body in a plane parallel with the upper surface of the device body, wherein the turning mechanism includes a limitation portion that is configured to limit a rotation angle of the shaft body to a fixed range such that the cover is configured to turn between a cover closing position where the cover closes the opening portion (11, 11a), and a cover opening position where the cover opens the opening portion (11, 11a), characterized in that the cover is configured to turn between the cover closing position and the cover opening position in a spiral shape.
Compactor trolley for aeronautical applications, having a parallelepiped structure and comprising: wheels; a compaction device arranged in the front top zone of the trolley; an extractable drawer containing at least one waste storage box which is open at the top and is arranged adjacent the compaction device; characterised in that the waste storage box is open at the side, and further characterised in that said extractable drawer being provided at the front with a door on which a flap is mounted and arranged in correspondance with the side opening of the waste storage box.
A sensor device for determining a relative angular position (Δφ) between a first shaft half and a second shaft half of a rotary shaft wherein the first shaft half and the second shaft half are configured to rotate with respect to one another about a common axis, in particular a rotary motor drive shaft, the sensor device comprising: - a first magnetic structure and a second magnetic structure having spatially different magnetic periodicities, wherein the first magnetic structure is suitable for being mounted on the first shaft half and the second magnetic structure is suitable for being mounted on the second shaft half such that respective magnetic fields generated and/or influenced by the first and second magnetic structures (4, 5) superpose, - at least four sensors (HE1, HE2, HE3, HE4) mounted stationary with respect to a rotary movement of the rotary shaft such that the superposed magnetic field generated and/or influenced by the first and second magnetic structures (4, 5) is detectable by each of the at least four stationary sensors (HE1, HE2, HE3, HE4), and - an electronic evaluation circuit configured to receive measurement values (q) corresponding to the detected superposed magnetic field from each of the at least four sensors (HE1, HE2, HE3, HE4) in order to determine the relative angular position (Δφ) from the received measurement values (q) of the at least four sensors (HE1, HE2, HE3, HE4), wherein the rotary shaft comprises a torsion section elastically interconnecting the two shaft halves (2, 3) for torque transmission. - a first magnetic structure and a second magnetic structure having spatially different magnetic periodicities, wherein the first magnetic structure is suitable for being mounted on the first shaft half and the second magnetic structure is suitable for being mounted on the second shaft half such that respective magnetic fields generated and/or influenced by the first and second magnetic structures (4, 5) superpose, - at least four sensors (HE1, HE2, HE3, HE4) mounted stationary with respect to a rotary movement of the rotary shaft such that the superposed magnetic field generated and/or influenced by the first and second magnetic structures (4, 5) is detectable by each of the at least four stationary sensors (HE1, HE2, HE3, HE4), and - an electronic evaluation circuit configured to receive measurement values (q) corresponding to the detected superposed magnetic field from each of the at least four sensors (HE1, HE2, HE3, HE4) in order to determine the relative angular position (Δφ) from the received measurement values (q) of the at least four sensors (HE1, HE2, HE3, HE4),
Supporting means for an elevator installation, the supporting means comprising: at least one elongate load-bearing element; a casing surrounding the load-bearing element; a multiplicity of sensors, which are arranged on the supporting means at multiple positions that are spaced apart from one another along a direction of longitudinal extent of the supporting means, the sensors being designed to determine at least one physical characteristic of the supporting means in a region locally adjacent to the respective sensor and to output a signal which indicates the determined physical characteristic, characterized in that the sensors are designed to determine at least one physical characteristic selected from the group comprising a local expansion of the supporting means, a local bending of the supporting means, a local acceleration of the supporting means, a force acting locally on the supporting means and an electrical conductivity through the supporting means. at least one elongate load-bearing element; a casing surrounding the load-bearing element; a multiplicity of sensors, which are arranged on the supporting means at multiple positions that are spaced apart from one another along a direction of longitudinal extent of the supporting means, the sensors being designed to determine at least one physical characteristic of the supporting means in a region locally adjacent to the respective sensor and to output a signal which indicates the determined physical characteristic, characterized in that the sensors are designed to determine at least one physical characteristic selected from the group comprising a local expansion of the supporting means, a local bending of the supporting means, a local acceleration of the supporting means, a force acting locally on the supporting means and an electrical conductivity through the supporting means.
A composition comprising a protein or peptide containing a thioredoxin monocysteinic active site in a reduced state for use in decreasing viscosity of mucus or sputum, in a patient that has excessively viscous or cohesive mucus or sputum, wherein contacting the mucus or sputum of the patient with the composition decreases the viscosity of the mucus or sputum as compared to prior to the step of contacting, wherein the thioredoxin monocysteinic active site comprises an amino acid sequence selected from the group consisting of C-X-X-S (SEQ ID NO: 24), C-X-X-X (SEQ ID NO:17), X-C-X-X-X-X (SEQ ID NO: 19), X-C-G-P-X-X (SEQ ID NO:21), W-C-G-P-X-K (SEQ ID NO:23), X-C-X-X-S-X (SEQ ID NO:25), X-C-G-P-S-X (SEQ ID NO:26), and W-C-G-P-S-K (SEQ ID NO:27) wherein the C residue is in a reduced state, and wherein the X residues are any amino acid residue other than cysteine.
A refrigerated display case, which has a drain and a system for detecting a substance in the drain comprising: a drain sensor which is arranged relative to the drain to detect the level of fluid, moisture or solid substance at the drain, and which comprises: a support member for placement relative to a drain, the support member including a cage, a sensing element attached to the support member and arranged within the cage, and measurement circuitry operatively coupled to the sensing element, in which the measurement circuitry is operative to provide an inductance measurement of the sensing element, the inductance of the sensing element being proportional to a level of fluid, moisture or a solid substance relative to the sensing element, and the system further comprising a controller communicatively coupled to the drain sensor to receive data corresponding to an inductance measurement provided by the sensor, in which the controller is configured to detect the fluid, moisture or solid substance level in the drain based on the inductance measurement provided by the sensor. a drain sensor which is arranged relative to the drain to detect the level of fluid, moisture or solid substance at the drain, and which comprises: a support member for placement relative to a drain, the support member including a cage, a sensing element attached to the support member and arranged within the cage, and measurement circuitry operatively coupled to the sensing element, in which the measurement circuitry is operative to provide an inductance measurement of the sensing element, the inductance of the sensing element being proportional to a level of fluid, moisture or a solid substance relative to the sensing element, and the system further comprising a controller communicatively coupled to the drain sensor to receive data corresponding to an inductance measurement provided by the sensor, in which the controller is configured to detect the fluid, moisture or solid substance level in the drain based on the inductance measurement provided by the sensor. a support member for placement relative to a drain, the support member including a cage, a sensing element attached to the support member and arranged within the cage, and measurement circuitry operatively coupled to the sensing element, in which the measurement circuitry is operative to provide an inductance measurement of the sensing element, the inductance of the sensing element being proportional to a level of fluid, moisture or a solid substance relative to the sensing element, and the system further comprising a controller communicatively coupled to the drain sensor to receive data corresponding to an inductance measurement provided by the sensor, in which the controller is configured to detect the fluid, moisture or solid substance level in the drain based on the inductance measurement provided by the sensor.