mhurhangee/ep-ind-claims huggingface dataset:
Wall element having at least one support strip for a drawer, wherein the at least one support strip is provided for attachment of a plate-shaped wall component to the wall element and has a U-shaped profile, wherein the U-shaped profile of the support strip comprises a middle portion, from which lateral limb portions (2a, 2b) protrude in an angled manner on opposite sides, wherein an elastically flexible pressure element (2f, 5) is formed on an inner side region of each lateral limb portion (2a, 2b), wherein an inner side region of a first of the lateral limb portions (2a, 2b) faces towards a second opposite limb portion (2a, 2b), wherein the elastically flexible pressure elements (2f, 5) are formed in such a way that a peripheral portion of the wall component, said peripheral portion being arranged between the lateral limb portions (2a, 2b), can be held in contact and/or in connection with each of the two lateral limb portions (2a, 2b) of the U-shaped profile, wherein the wall element comprises a frame body, wherein, on an upper side of the frame body, the support strip is connected to the frame body so as to protrude perpendicularly upwards, wherein the support strip is connected to the upper side, wherein the support strip has, with respect to a vertical longitudinal extent of the support strip, two tabs (2d, 2e) at a lower end of the lateral limb portions (2a, 2b), by means of which tabs the support strip is connected to the frame body, characterized in that the support strip is produced from a metal sheet.
A wind turbine rotor blade including a sidewall extending between a root portion and a tip portion and along a longitudinal spanwise axis, said rotor blade further comprising a monitoring system comprising: a fiber optic strand coupled to the rotor blade sidewall, the fiber optic strand having a length extending from the root portion towards the tip portion; a plurality of sensors coupled to said fiber optic strand, each sensor of said plurality of sensors axially spaced along said fiber optic strand and configured to transmit a signal indicative of a position of a respective portion of the rotor blade, characterized in that said plurality of sensors comprises: a first set of sensors positioned within the root portion wherein adjacent sensors of the first set of sensors are spaced a first spanwise distance along the spanwise axis between the root portion and the tip portion; and a second set of sensors positioned within the tip portion wherein adjacent sensors of the second set of sensors are spaced a second spanwise distance along the spanwise axis between the root portion and the tip portion, said second spanwise distance being less than the first spanwise distance. a fiber optic strand coupled to the rotor blade sidewall, the fiber optic strand having a length extending from the root portion towards the tip portion; a plurality of sensors coupled to said fiber optic strand, each sensor of said plurality of sensors axially spaced along said fiber optic strand and configured to transmit a signal indicative of a position of a respective portion of the rotor blade, characterized in that said plurality of sensors comprises: a first set of sensors positioned within the root portion wherein adjacent sensors of the first set of sensors are spaced a first spanwise distance along the spanwise axis between the root portion and the tip portion; and a second set of sensors positioned within the tip portion wherein adjacent sensors of the second set of sensors are spaced a second spanwise distance along the spanwise axis between the root portion and the tip portion, said second spanwise distance being less than the first spanwise distance. a first set of sensors positioned within the root portion wherein adjacent sensors of the first set of sensors are spaced a first spanwise distance along the spanwise axis between the root portion and the tip portion; and a second set of sensors positioned within the tip portion wherein adjacent sensors of the second set of sensors are spaced a second spanwise distance along the spanwise axis between the root portion and the tip portion, said second spanwise distance being less than the first spanwise distance.
An active aerostatic bearing comprising a first plate with a central recess area including an orifice forming an inlet restrictor for pressurized air from a central nozzle, the pressurized air forming an air gap between a guiding surface and the first plate, further comprising a force actuator (VC, M, 11) acting to deform the first plate and thus changing the shape of the air gap, characterized in that the actuator (VC, M, 11) causes a conical deformation of the first plate, and in that the first plate, a second plate and four pivoting points (P1, P2, P3, P4) are forming a parallelogram, the shape of the parallelogram being changeable by actuating the actuator (VC, M, 11).
Electromechanical timepiece movement comprising a stepping motor, a wheel driven in rotation by said motor, a movable component meshing with said wheel and a device for detecting the angular position of the wheel, said detection device making it possible to determine the passage of a reference half-axis of said wheel through a reference angle (α REF) defined by said wheel and the movable component and comprising for such purpose an electronic circuit capable of detecting an additional resistive torque that occurs momentarily when the wheel and movable component are driven in a stepping motion by the motor; characterized in that said additional resistive torque is generated by a resilient element integral with the wheel and arranged to extend, in projection into a general plane of said wheel in which said toothing thereof is located, at least inside one given hollow between two adjacent teeth (34, 35) of said toothing, said resilient element being elastically deformable in a radial direction of the wheel substantially as far as the bottom of said given hollow; and in that said movable component has a toothing which is at least partially situated at the level of said resilient element, such that said toothing moves and presses against the resilient element when said toothing penetrates said given hollow.
A system for detecting a foreign object, comprising: a first sensor mounted adjacent to a bezel for a magnetic card reader device, the first sensor providing a first signal that varies when a foreign object is placed adjacent to an exterior portion of the bezel; a second sensor mounted adjacent to the bezel, the second sensor providing a second signal that varies when a foreign object is placed adjacent to the exterior portion of the bezel, the second sensor operating according to a different technology than the first sensor; and a controller coupled to the first sensor and the second sensor, the controller configured to receive the first signal and the second signal; wherein the first sensor is capacitive-based and includes at least three plates (210, 212, 212) mounted adjacent to the bezel, each of the three plates coupled to the controller, the at least three plates forming capacitive pairs with each pair comprising two of the at least three plates, and wherein the controller is configured to sequentially apply a reference signal to a selected one of the two plates in each capacitive pair and to receive a measurement signal from the other of the two plates in each capacitive pair, and wherein the measurement signal from each capacitive pair corresponds to the first signal; wherein the controller is configured to generate an alarm signal when a majority of the measurement signals and the second signal differ from associated predetermined baseline signals by at least associated predetermined thresholds. a first sensor mounted adjacent to a bezel for a magnetic card reader device, the first sensor providing a first signal that varies when a foreign object is placed adjacent to an exterior portion of the bezel; a second sensor mounted adjacent to the bezel, the second sensor providing a second signal that varies when a foreign object is placed adjacent to the exterior portion of the bezel, the second sensor operating according to a different technology than the first sensor; and a controller coupled to the first sensor and the second sensor, the controller configured to receive the first signal and the second signal; wherein the first sensor is capacitive-based and includes at least three plates (210, 212, 212) mounted adjacent to the bezel, each of the three plates coupled to the controller, the at least three plates forming capacitive pairs with each pair comprising two of the at least three plates, and wherein the controller is configured to sequentially apply a reference signal to a selected one of the two plates in each capacitive pair and to receive a measurement signal from the other of the two plates in each capacitive pair, and wherein the measurement signal from each capacitive pair corresponds to the first signal; wherein the controller is configured to generate an alarm signal when a majority of the measurement signals and the second signal differ from associated predetermined baseline signals by at least associated predetermined thresholds.
A method of a User Equipment of limiting Channel Quality Indicator, CQI, reporting from said User Equipment to a network node, wherein at least one CQI report is transmitted to said network node by said User Equipment when said User Equipment is operating in low transmission and/or low reception activity mode, said CQI reporting being triggered according to one or more predefined CQI reporting trigger rules, at least one of said CQI reporting trigger rules being dependent on CQI specific information provided from said network node, characterized in that: at least one of said CQI reporting trigger rules is based on a comparison between the transport block size corresponding to an estimated CQI and a transport block size received by said User Equipment. at least one of said CQI reporting trigger rules is based on a comparison between the transport block size corresponding to an estimated CQI and a transport block size received by said User Equipment.
A method comprising: creating a thread and identifying that said thread is to use an accelerator of a plurality of accelerators; receiving from a processor including said accelerator an amount of storage space for storing said accelerator's context; creating an allocated storage space by allocating said amount of storage space; executing said thread on said processor and utilizing said accelerator to create context information of said accelerator for said thread; in response to a decision to place said thread in an inactive state, storing said context information in said allocated storage space; storing a vector commensurate with said storing of said context information, said vector identifying said accelerator; and in response to a decision to reactivate said thread, reading said vector to determine that said accelerator has saved context information, reading said context information of said accelerator for said thread from said allocated storage space, and reincorporating said context information into said accelerator. creating a thread and identifying that said thread is to use an accelerator of a plurality of accelerators; receiving from a processor including said accelerator an amount of storage space for storing said accelerator's context; creating an allocated storage space by allocating said amount of storage space; executing said thread on said processor and utilizing said accelerator to create context information of said accelerator for said thread; in response to a decision to place said thread in an inactive state, storing said context information in said allocated storage space; storing a vector commensurate with said storing of said context information, said vector identifying said accelerator; and in response to a decision to reactivate said thread, reading said vector to determine that said accelerator has saved context information, reading said context information of said accelerator for said thread from said allocated storage space, and reincorporating said context information into said accelerator.
A liquid crystal composition having a positive dielectric anisotropy comprising: a dielectrically positive component containing a dielectrically positive compound represented by Formula a dielectrically positive compound represented by Formula (6.1) and a compound represented by Formula (13.3) and a dielectrically neutral component having a dielectric anisotropy larger than -2 and smaller than +2 and containing at least one dielectrically neutral compound represented by Formula (2.1) a compound represented by Formula (5.4) and a compound represented by Formula (3.1) a dielectrically positive component containing a dielectrically positive compound represented by Formula a dielectrically positive compound represented by Formula (6.1) and a compound represented by Formula (13.3) and a dielectrically neutral component having a dielectric anisotropy larger than -2 and smaller than +2 and containing at least one dielectrically neutral compound represented by Formula (2.1) a compound represented by Formula (5.4) and a compound represented by Formula (3.1)
A method for providing color management, comprising: receiving a plurality of measurements of the intensity of a plurality of colors, a light source generating a plurality of light beams to yield the plurality of colors, the plurality of light beams generated in accordance to image data to create an image; establishing a target color value, the target color value being a white point value; establishing a plurality of target values corresponding to the target color value, the plurality of target values being a plurality of target white point color values corresponding to the white point values; selecting (116, 120) a duty cycle sequence in accordance with the plurality of measurements and the plurality of target values corresponding to the target color value, the duty cycle sequence operable to control the light source; establishing a plurality of real time measured values corresponding to the selected duty cycle sequence; determining a difference between the target values and the real time measured values; and selecting one or more current levels corresponding to the difference, the one or more current levels being for one or more currents provided to the light source, wherein the duty cycle sequence may be selected to maintain a current level in the range in which appropriate color management adjustment may be provided. receiving a plurality of measurements of the intensity of a plurality of colors, a light source generating a plurality of light beams to yield the plurality of colors, the plurality of light beams generated in accordance to image data to create an image; establishing a target color value, the target color value being a white point value; establishing a plurality of target values corresponding to the target color value, the plurality of target values being a plurality of target white point color values corresponding to the white point values; selecting (116, 120) a duty cycle sequence in accordance with the plurality of measurements and the plurality of target values corresponding to the target color value, the duty cycle sequence operable to control the light source; establishing a plurality of real time measured values corresponding to the selected duty cycle sequence; determining a difference between the target values and the real time measured values; and selecting one or more current levels corresponding to the difference, the one or more current levels being for one or more currents provided to the light source, wherein the duty cycle sequence may be selected to maintain a current level in the range in which appropriate color management adjustment may be provided.
A method for creating a three-dimensional virtual reality or augmented reality rendering of an object from a 3D object, the method comprising: determining an object type based on the 3D object; creating or receiving a set of masks based on the object type, each mask representing a unique 3D portion of the object; assigning each mask in the set of masks: i) a plurality of voxels from the 3D object that corresponds to the respective mask's unique portion, and ii) a unique visual marker; determining an outer mask of the set of masks; creating a 3D mesh from the outer mask; for each vertex in an inner wall of the 3D mesh of the outer mask: a) determining a geodesic distance for each voxel in each mask, except for the outer mask, to a respective current voxel associated with the vertex, and b) modifying a respective visual marker of the vertex to have the same visual marker as the voxel with the shortest geodesic distance to the vertex; and creating the 3D virtual reality or augmented reality rendering of the object based on the outer mask and the respective unique visual marker of all of the masks. determining an object type based on the 3D object; creating or receiving a set of masks based on the object type, each mask representing a unique 3D portion of the object; assigning each mask in the set of masks: i) a plurality of voxels from the 3D object that corresponds to the respective mask's unique portion, and ii) a unique visual marker; i) a plurality of voxels from the 3D object that corresponds to the respective mask's unique portion, and ii) a unique visual marker; determining an outer mask of the set of masks; creating a 3D mesh from the outer mask; for each vertex in an inner wall of the 3D mesh of the outer mask: a) determining a geodesic distance for each voxel in each mask, except for the outer mask, to a respective current voxel associated with the vertex, and b) modifying a respective visual marker of the vertex to have the same visual marker as the voxel with the shortest geodesic distance to the vertex; and a) determining a geodesic distance for each voxel in each mask, except for the outer mask, to a respective current voxel associated with the vertex, and b) modifying a respective visual marker of the vertex to have the same visual marker as the voxel with the shortest geodesic distance to the vertex; and creating the 3D virtual reality or augmented reality rendering of the object based on the outer mask and the respective unique visual marker of all of the masks.
Use of a reaction product of (i) a compound containing the segment -NH 1 R 2 where R 1 represents a group containing from 4 to 44 carbon atoms and R 2 represents a hydrogen atom or a group R 1, and (ii) carboxylic acid having from 1 to 4 carboxylic acid groups or an acid anhydride or acid halide thereof, in order to improve the filterability of a Bx fuel above the cloud point of the Bx fuel; wherein the Bx fuel comprises fuel derived from animal or vegetable oil sources admixed with fuel derived from mineral or synthetic sources; wherein the Bx fuel has a sulphur content less than 200ppm; wherein the Bx fuel contains at least 4 wt% of fuel derived from animal or vegetable sources; and wherein the additive is present in the Bx fuel in an amount (as active material) of from 10 mg/kg up to 200 mg/kg.
Hybrid drive of a motor vehicle, which comprises an internal combustion engine with a driveshaft, an electric machine which is operable as a motor and as a generator and which has a rotor, and a multi-stage manual gearbox with two coaxially arranged input shafts (GE1, GE2) and one common output shaft, wherein the first input shaft is arranged centrally within the second input shaft which is formed as a hollow shaft, at least the first input shaft is connectable by means of an associated separating clutch to the drive shaft of the internal combustion engine, the second input shaft is connected in terms of drive to the rotor of the electric machine, and the two input shafts (GE1, GE2) are in each case selectively connectable in terms of drive to the output shaft by means of multiple gear-ratio gear sets (3, 5, 7, 9; 4, 6, 8, 10) with different transmission ratio and with in each case one shiftable gear-ratio clutch (S1, S3; S2, S4), wherein only the first input shaft is connectable by means of the associated separating clutch to the driveshaft of the internal combustion engine, and wherein the first input shaft and the second input shaft are couplable to one another by means of an engageable and disengageable positively locking shift clutch (SE1, SE1'), characterized in that the electric machine and the shift clutch (SE1, SE1'; SE2, SE2') are arranged outside a gearbox housing of the manual gearbox, between the separating clutch and an engine-side end wall of the gearbox housing.
A testing method for accelerating silicone drainage rate for a siliconized syringe, comprising: (a) placing a syringe (10, 10') including a film of silicone in a predefined orientation into a centrifuge holder of a centrifuge system, the syringe including a needle end and an opposite, flange end, the predefined orientation of said syringe including the flange end being disposed farther away from a center rotation axis of the centrifuge system than the needle end or the needle end being disposed farther away from said center rotation axis of the centrifuge system than the flange end; (b) activating a centrifugation of the centrifugation holder of the centrifuge system with the syringe at a predetermined G-rate and for a predetermined period of a time (tfc); (c) ending the centrifugation of the centrifugation holder with the syringe after the period time has elapsed; and (d) assessing one or more injection functionality parameters of the syringe after the elapsed period of time. (a) placing a syringe (10, 10') including a film of silicone in a predefined orientation into a centrifuge holder of a centrifuge system, the syringe including a needle end and an opposite, flange end, the predefined orientation of said syringe including the flange end being disposed farther away from a center rotation axis of the centrifuge system than the needle end or the needle end being disposed farther away from said center rotation axis of the centrifuge system than the flange end; (b) activating a centrifugation of the centrifugation holder of the centrifuge system with the syringe at a predetermined G-rate and for a predetermined period of a time (tfc); (c) ending the centrifugation of the centrifugation holder with the syringe after the period time has elapsed; and (d) assessing one or more injection functionality parameters of the syringe after the elapsed period of time.
Energy absorber for an aircraft seat, in particular for a helicopter seat, said energy absorber comprising at least one energy absorption element which comprises: - a first anchoring point and a second anchoring point, - an energy absorption zone extending between the first anchoring point and the second anchoring point, said energy absorption zone being able to stretch during the application of a tensile force between the first anchoring point and the second anchoring point, - wherein the energy absorption zone has a mesh structure comprising a plurality of strands interconnected by means of junction portions, and wherein at least one junction portion provides a junction between at least three strands of said energy absorption zone, characterized in that the energy absorption element has an asymmetrical configuration with respect to a traction axis passing through the first anchoring point and the second anchoring point. - a first anchoring point and a second anchoring point, - an energy absorption zone extending between the first anchoring point and the second anchoring point, said energy absorption zone being able to stretch during the application of a tensile force between the first anchoring point and the second anchoring point, - wherein the energy absorption zone has a mesh structure comprising a plurality of strands interconnected by means of junction portions, and wherein at least one junction portion provides a junction between at least three strands of said energy absorption zone,