mhurhangee/ep-ind-claims huggingface dataset:
A computer-based system for dynamic alignment of prosthetic limbs for a subject configured therewith, comprising: means for obtaining data of a prosthesis-equipped subject in motion; characterized in that said data is motion data of said subject in motion; and said system further comprising: a motion database comprising multiple motions with known prosthetic alignment errors; a motion blending engine configured for blending said motion data with selected said motions with known prosthetic alignment errors from the motion database into blended data; and a computer configured for receiving the blended data from the blending engine, said computer being configured to calculate a prosthesis alignment error correction for the prosthesis-equipped subject from the blended data. means for obtaining data of a prosthesis-equipped subject in motion; characterized in that said data is motion data of said subject in motion; and said system further comprising: a motion database comprising multiple motions with known prosthetic alignment errors; a motion blending engine configured for blending said motion data with selected said motions with known prosthetic alignment errors from the motion database into blended data; and a computer configured for receiving the blended data from the blending engine, said computer being configured to calculate a prosthesis alignment error correction for the prosthesis-equipped subject from the blended data. a motion database comprising multiple motions with known prosthetic alignment errors; a motion blending engine configured for blending said motion data with selected said motions with known prosthetic alignment errors from the motion database into blended data; and a computer configured for receiving the blended data from the blending engine, said computer being configured to calculate a prosthesis alignment error correction for the prosthesis-equipped subject from the blended data.
Piezoelectric rotary drive for a shaft, comprising at least one piezoelectric actuator and an adjustable and/or deformable frame with at least one coupling portion which can be coupled to the shaft in a force-locked manner so as to accomplish a stick-slip drive, wherein the frame mechanically translates a piezoelectric deformation of the actuator such that the coupling portion rotates about the axis and during the stick phase together with the shaft over at least a part of the circumference of the shaft, wherein a spring pretensions the coupling portion and the shaft relative to each other.
A cable, preferably a power cable, more preferably a DC power cable, comprising a conductor surrounded by at least one layer, wherein the at least one layer comprises, preferably consists of, a polymer composition comprising (a) polyethylene produced in the presence of an olefin polymerisation catalyst and selected from very low density polyethylene (VLDPE) copolymers, linear low density polyethylene (LLDPE) copolymers, medium density polyethylene (MDPE) copolymers or high density polyethylene (HDPE) homopolymers or copolymers, (b) an optionally unsaturated LDPE homopolymer or an optionally unsaturated LDPE copolymer of ethylene with one or more comonomer(s), and (c) an ion exchanger additive (a) polyethylene produced in the presence of an olefin polymerisation catalyst and selected from very low density polyethylene (VLDPE) copolymers, linear low density polyethylene (LLDPE) copolymers, medium density polyethylene (MDPE) copolymers or high density polyethylene (HDPE) homopolymers or copolymers, (b) an optionally unsaturated LDPE homopolymer or an optionally unsaturated LDPE copolymer of ethylene with one or more comonomer(s), and (c) an ion exchanger additive
A method for wireless communication, comprising: transmitting a request for a retransmission of one or more code blocks, CBs, of a received transmission; receiving control information that indicates allocated resources for the retransmission of the one or more CBs according to a first repetition level that includes at least two retransmissions of each of the one or more CBs, wherein the allocated resources provide time diversity and frequency diversity for the retransmissions and wherein a number of retransmissions of the first repetition level is dependent upon a number of CBs to be retransmitted; and monitoring the allocated resources for the retransmission of the one or more CBs. transmitting a request for a retransmission of one or more code blocks, CBs, of a received transmission; receiving control information that indicates allocated resources for the retransmission of the one or more CBs according to a first repetition level that includes at least two retransmissions of each of the one or more CBs, wherein the allocated resources provide time diversity and frequency diversity for the retransmissions and wherein a number of retransmissions of the first repetition level is dependent upon a number of CBs to be retransmitted; and monitoring the allocated resources for the retransmission of the one or more CBs.
A navigation device programmed with a map database and software that enables a route to be planned from a starting position to a user-defined destination position, in which the device is further programmed (i) to be able to calculate and to display a 2-D or 3-D representation of the actual road being travelled along and the current location of the device on that road and (ii) to receive and process dynamic travel information relating to the route, the device being adapted to calculate and to display, during the journey along the route, a schematic view showing a linear representation of the entire route or the remainder of the route from the current location of the device, the schematic view including at least one graphical icon representing dynamic travel information relating to the route, the at least one graphical icon being superimposed over, or positioned adjacent to, the linear representation at the affected part of the route to which it relates, characterised in that: the at least one graphical icon is a selectable option that, when selected, causes the device to display more details of the dynamic travel information associated with that option. the at least one graphical icon is a selectable option that, when selected, causes the device to display more details of the dynamic travel information associated with that option.
Method for producing decorative laminate (1, 1', 1") made from resin-impregnated layers of paper by means of a continuously or discontinuously operating press, in which the surface of the laminate is textured by means of a structure-imparting strip, structure-imparting paper or press plate, characterised in that the structure-imparting strip, structure-imparting paper or press plate used for the texturing comprises at least two longitudinal surface areas lying next to each other and with different degrees of texturing, wherein the more highly textured surface area has a width or average width of at least 10 cm, preferably of at least 15 cm, and wherein the more highly textured surface area is narrower than the less highly textured surface area, wherein the structure-imparting strip, structure-imparting paper or press plate used for the texturing is configured so that the surface areas with different degrees of texturing extend as continuous strips over the full length or width of the laminate, and wherein between the surface areas with different degrees of texturing a linear structure-imparting element is arranged, which generates in the surface of the laminate a groove delimiting from each other the differently structured surface areas.
A method performed by a server comprising: receiving a request from a mobile communication device for GNSS assistance data, wherein the request includes at least one data type and at least one parameter, wherein the at least one parameter is at least one of an update period or a request validity period; sending assistance data to the mobile communication device in accordance with the at least one data type and the at least one parameter; and in response to an event, sending updated assistance data (420, 435) to the mobile communication device in accordance with the at least one data type and the at least one parameter. receiving a request from a mobile communication device for GNSS assistance data, wherein the request includes at least one data type and at least one parameter, wherein the at least one parameter is at least one of an update period or a request validity period; sending assistance data to the mobile communication device in accordance with the at least one data type and the at least one parameter; and in response to an event, sending updated assistance data (420, 435) to the mobile communication device in accordance with the at least one data type and the at least one parameter.
A radar signal processing device comprising: a signal transmitting and receiving unit for radiating a transmission signal of an electromagnetic wave or a sound wave into air, and receiving a reflected signal, the reflected signal being the transmission signal reflected from a target in the air; a signal cutting-out unit for cutting out the reflected signal received by the signal transmitting and receiving unit by a specific length while the cut-out reflected signals are overlapped by a set length in at least either one of a range direction and a cross-range direction; a power spectrum calculating unit for calculating a plurality of power spectra from the cut-out reflected signals cut out by the signal cutting-out unit; a power spectrum reconstructing unit for performing power spectrum reconstruction by changing a ratio or contribution rate of power spectrum components in a set region, using the plurality of power spectra; and a spectral moment calculating unit for calculating a spectral moment from the power spectrum reconstructed by the power spectrum reconstructing unit. a signal transmitting and receiving unit for radiating a transmission signal of an electromagnetic wave or a sound wave into air, and receiving a reflected signal, the reflected signal being the transmission signal reflected from a target in the air; a signal cutting-out unit for cutting out the reflected signal received by the signal transmitting and receiving unit by a specific length while the cut-out reflected signals are overlapped by a set length in at least either one of a range direction and a cross-range direction; a power spectrum calculating unit for calculating a plurality of power spectra from the cut-out reflected signals cut out by the signal cutting-out unit; a power spectrum reconstructing unit for performing power spectrum reconstruction by changing a ratio or contribution rate of power spectrum components in a set region, using the plurality of power spectra; and a spectral moment calculating unit for calculating a spectral moment from the power spectrum reconstructed by the power spectrum reconstructing unit.
A method for determining a 3D topography Z(x,y) of a surface of an object, the method comprising: successively illuminating the surface of the object from a plurality of localized axis positions, the object having a specular reflection and a diffuse reflection; acquiring at least one image of the surface of the object at each successive illumination of the surface of the object using a sensor having a sensing axis substantially perpendicular to a general plane of the surface of the object, thereby resulting in a set of radiance images having a same field of view; for each radiance image of the set, defining a measured radiance at position (x, y) on an i th image as a sum of a diffuse reflection term and a specular reflection term, to define a set of non-linear equations, wherein the specular reflection term is dependent on a surface normal field N(x,y), a unit vector L i pointing from the surface to the i th light source, and a unit vector C pointing from the surface to the camera; solving the set of nonlinear equations for at least the specular reflection term to find the surface normal field N(x,y); and integrating the surface normal field N(x,y) over the FOV to determine the 3D topography Z(x,y). successively illuminating the surface of the object from a plurality of localized axis positions, the object having a specular reflection and a diffuse reflection; acquiring at least one image of the surface of the object at each successive illumination of the surface of the object using a sensor having a sensing axis substantially perpendicular to a general plane of the surface of the object, thereby resulting in a set of radiance images having a same field of view; for each radiance image of the set, defining a measured radiance at position (x, y) on an i th image as a sum of a diffuse reflection term and a specular reflection term, to define a set of non-linear equations, wherein the specular reflection term is dependent on a surface normal field N(x,y), a unit vector L i pointing from the surface to the i th light source, and a unit vector C pointing from the surface to the camera; solving the set of nonlinear equations for at least the specular reflection term to find the surface normal field N(x,y); and integrating the surface normal field N(x,y) over the FOV to determine the 3D topography Z(x,y).
An electrostatic coating apparatus, comprising: a spray gun configured to spray a coating material onto a coating object; a voltage application device configured to apply a high voltage to the spray gun; and a current measurement device configured to measure electric current flowing through the spray gun, wherein the electrostatic coating apparatus is configured to locate the spray gun, which is in a state of not spraying the coating material onto the coating object and is under application of the high voltage from the voltage application device, at a distance from the coating object, so as to measure the electric current flowing through the spray gun by the current measurement device, the electrostatic coating apparatus being configured to check a grounded state of the coating object, based on the electric current measured by the current measurement device, characterized in that a distance between the spray gun and the coating object during measurement of the electric current flowing through the spray gun by the current measurement device is set smaller than a distance between the spray gun and the coating object during coating of the coating object by the spray gun. a spray gun configured to spray a coating material onto a coating object; a voltage application device configured to apply a high voltage to the spray gun; and a current measurement device configured to measure electric current flowing through the spray gun, wherein the electrostatic coating apparatus is configured to locate the spray gun, which is in a state of not spraying the coating material onto the coating object and is under application of the high voltage from the voltage application device, at a distance from the coating object, so as to measure the electric current flowing through the spray gun by the current measurement device, the electrostatic coating apparatus being configured to check a grounded state of the coating object, based on the electric current measured by the current measurement device, characterized in that a distance between the spray gun and the coating object during measurement of the electric current flowing through the spray gun by the current measurement device is set smaller than a distance between the spray gun and the coating object during coating of the coating object by the spray gun.
A semiconductor module, comprising: at least one semiconductor chip comprising at least one semiconductor switch having a collector, emitter and gate; a collector terminal connected to the collector; a gate terminal connected to the gate; an emitter terminal connected to the emitter via an emitter conductor path having an emitter inductance; an auxiliary emitter terminal connected to the emitter; a first conductor path connected to the emitter; a second conductor path connected to the emitter having a different mutually inductive coupling with the emitter conductor path to that of the first conductor path; the first conductor path and the second conductor path are connectable to the auxiliary emitter terminal; wherein the semiconductor switch is an IGBT, and wherein each of the first conductor path and the second conductor path comprises bridging points that may be short-circuited by a bond wire for connecting the respective conductor path to the auxiliary emitter terminal. at least one semiconductor chip comprising at least one semiconductor switch having a collector, emitter and gate; a collector terminal connected to the collector; a gate terminal connected to the gate; an emitter terminal connected to the emitter via an emitter conductor path having an emitter inductance; an auxiliary emitter terminal connected to the emitter; a first conductor path connected to the emitter; a second conductor path connected to the emitter having a different mutually inductive coupling with the emitter conductor path to that of the first conductor path; the first conductor path and the second conductor path are connectable to the auxiliary emitter terminal; wherein the semiconductor switch is an IGBT, and wherein each of the first conductor path and the second conductor path comprises bridging points that may be short-circuited by a bond wire for connecting the respective conductor path to the auxiliary emitter terminal.
Method of manufacturing a ceramic element (10, 10', 10") for a timepiece comprising the following steps: a) forming a body (11, 11', 11") made of oxide based ceramic; b) exposing at least one portion (15, 15', 15") of the external surface of the body (11, 11', 11") to a reduction reaction, to remove oxygen atoms to a predetermined depth in order to make said at least one portion (15, 15', 15") electrically conductive; c) depositing a metallic material (16, 16', 16") starting from said at least one electrically conductive portion (15, 15', 15"), and d) machining the body (11, 11', 11") and/or the deposited metallic material (16, 16', 16") in order to provide the element (10, 10', 10") with an aesthetic finish. a) forming a body (11, 11', 11") made of oxide based ceramic; b) exposing at least one portion (15, 15', 15") of the external surface of the body (11, 11', 11") to a reduction reaction, to remove oxygen atoms to a predetermined depth in order to make said at least one portion (15, 15', 15") electrically conductive; c) depositing a metallic material (16, 16', 16") starting from said at least one electrically conductive portion (15, 15', 15"), and d) machining the body (11, 11', 11") and/or the deposited metallic material (16, 16', 16") in order to provide the element (10, 10', 10") with an aesthetic finish.
A method for managing communication devices (102, 104, 106, 108), the method comprising: receiving (204, 404), by a receiver, a request for placing a first communication device in an active communication session, the method being characterized by: the request comprising information related to an identity of the first communication device; identifying (206, 416), by a processor, an active communication session from a set of active communication sessions based on the information related to the identity of the first communication device and based on at least one mapping algorithm, the at least one mapping algorithm being based on location of the first communication device and/or type of the first communication device and/or a pre-defined precedence order of communication devices (102, 104, 106, 108) and/or the identity of the first communication device; and placing, by the processor, the first communication device in the active communication session. receiving (204, 404), by a receiver, a request for placing a first communication device in an active communication session, the method being characterized by: the request comprising information related to an identity of the first communication device; identifying (206, 416), by a processor, an active communication session from a set of active communication sessions based on the information related to the identity of the first communication device and based on at least one mapping algorithm, the at least one mapping algorithm being based on location of the first communication device and/or type of the first communication device and/or a pre-defined precedence order of communication devices (102, 104, 106, 108) and/or the identity of the first communication device; and placing, by the processor, the first communication device in the active communication session. the request comprising information related to an identity of the first communication device; identifying (206, 416), by a processor, an active communication session from a set of active communication sessions based on the information related to the identity of the first communication device and based on at least one mapping algorithm, the at least one mapping algorithm being based on location of the first communication device and/or type of the first communication device and/or a pre-defined precedence order of communication devices (102, 104, 106, 108) and/or the identity of the first communication device; and placing, by the processor, the first communication device in the active communication session.
A device, comprising: a display assembly configured to generate light for an image; a first optical waveguide (124) comprising a first transmissive substrate (126) having a first input coupler (134) and a first output coupler (136) positioned thereon, the first optical waveguide (124) positioned to receive the light from the display assembly at the first input coupler (134) and to transmit a first range of wavelengths of the light along the first transmissive substrate (126); and, a second optical waveguide (124) comprising a second transmissive substrate having a second input coupler (134) and a second output coupler (136) positioned thereon, the second optical waveguide (124) positioned in a non-parallel relationship to the first optical waveguide (124), the second optical waveguide (124) configured to receive a second range of wavelengths of the light through the first optical waveguide (124) at the second input coupler (134) and to emit the second range of wavelengths of the light from the second output coupler (136) toward the first optical waveguide (124) at an angle that causes the first range of wavelengths and the second range of wavelengths to be emitted from the first waveguide at identical angles, wherein the first optical waveguide (124) is configured to emit the first wavelength range and second wavelength range at the same angle. a display assembly configured to generate light for an image; a first optical waveguide (124) comprising a first transmissive substrate (126) having a first input coupler (134) and a first output coupler (136) positioned thereon, the first optical waveguide (124) positioned to receive the light from the display assembly at the first input coupler (134) and to transmit a first range of wavelengths of the light along the first transmissive substrate (126); and, a second optical waveguide (124) comprising a second transmissive substrate having a second input coupler (134) and a second output coupler (136) positioned thereon, the second optical waveguide (124) positioned in a non-parallel relationship to the first optical waveguide (124), the second optical waveguide (124) configured to receive a second range of wavelengths of the light through the first optical waveguide (124) at the second input coupler (134) and to emit the second range of wavelengths of the light from the second output coupler (136) toward the first optical waveguide (124) at an angle that causes the first range of wavelengths and the second range of wavelengths to be emitted from the first waveguide at identical angles, wherein the first optical waveguide (124) is configured to emit the first wavelength range and second wavelength range at the same angle.