mhurhangee/ep-ind-claims huggingface dataset:
An automobile calibration device, comprising: a stand apparatus; a supporting assembly (20, 40, 50, 60), mounted at the stand apparatus and movable in a vertical direction with respect to the stand apparatus, and configured to support a calibration apparatus (300, 400) which is assistant to calibrate a vehicle; and a drive assembly, configured to drive the supporting assembly (20, 40, 50, 60) to move in the vertical direction with respect to the stand apparatus; wherein the drive assembly comprises a motor assembly and a transmission mechanism; the motor assembly is configured to drive the transmission mechanism to move; and the transmission mechanism is configured to enable the supporting assembly (20;40;50;60) to move in the vertical direction with respect to the stand apparatus, wherein the motor assembly further comprises a control assembly and a motor; and the control assembly comprises a controller, the controller being electrically connected to the motor and being configured to control a rotational rate of the motor, so as to control the movement speed of the supporting assembly (20, 40, 50, 60), wherein the control assembly further comprises a limit switch and a trigger apparatus; the limit switch and the trigger apparatus are electrically connected; when the supporting assembly (20, 40, 50, 60) connects with the trigger apparatus, the trigger apparatus is configured to trigger the limit switch to cut off the power supply to the motor. a stand apparatus; a supporting assembly (20, 40, 50, 60), mounted at the stand apparatus and movable in a vertical direction with respect to the stand apparatus, and configured to support a calibration apparatus (300, 400) which is assistant to calibrate a vehicle; and a drive assembly, configured to drive the supporting assembly (20, 40, 50, 60) to move in the vertical direction with respect to the stand apparatus; wherein the drive assembly comprises a motor assembly and a transmission mechanism; the motor assembly is configured to drive the transmission mechanism to move; and the transmission mechanism is configured to enable the supporting assembly (20;40;50;60) to move in the vertical direction with respect to the stand apparatus, wherein the motor assembly further comprises a control assembly and a motor; and the control assembly comprises a controller, the controller being electrically connected to the motor and being configured to control a rotational rate of the motor, so as to control the movement speed of the supporting assembly (20, 40, 50, 60), wherein the control assembly further comprises a limit switch and a trigger apparatus; the limit switch and the trigger apparatus are electrically connected; when the supporting assembly (20, 40, 50, 60) connects with the trigger apparatus, the trigger apparatus is configured to trigger the limit switch to cut off the power supply to the motor.
A method for measuring volumetric changes of brain structures, the method comprising: i. initializing an intensity value of all voxels of a 3D voxel dataset representing the brain of a subject to an initial value preferentially equal to 0; ii. for all voxels that belongs to a segmented brain structure for which reference data of a longitudinal reference model exists, wherein the longitudinal reference model represents a volume change of said structure in function of time for a healthy population, automatically executing the following steps: - calculating a volume change deviation D from the longitudinal reference model for the segmented brain structure of the subject, wherein, for said subject, a volume change is obtained by measuring the volume of said brain structure at different times and by automatically determining the change of said volume in function of time; - normalizing the deviation D to obtain a quantitative value Q of the volume change in order to compare said deviation D for voxel's belonging to different brain structures; - setting the intensity value of the voxels of the segmented brain structure to the previously obtained quantitative value Q; iii. displaying the voxels of the 3D voxel dataset in a longitudinal deviation map. i. initializing an intensity value of all voxels of a 3D voxel dataset representing the brain of a subject to an initial value preferentially equal to 0; ii. for all voxels that belongs to a segmented brain structure for which reference data of a longitudinal reference model exists, wherein the longitudinal reference model represents a volume change of said structure in function of time for a healthy population, automatically executing the following steps: - calculating a volume change deviation D from the longitudinal reference model for the segmented brain structure of the subject, wherein, for said subject, a volume change is obtained by measuring the volume of said brain structure at different times and by automatically determining the change of said volume in function of time; - normalizing the deviation D to obtain a quantitative value Q of the volume change in order to compare said deviation D for voxel's belonging to different brain structures; - setting the intensity value of the voxels of the segmented brain structure to the previously obtained quantitative value Q; - calculating a volume change deviation D from the longitudinal reference model for the segmented brain structure of the subject, wherein, for said subject, a volume change is obtained by measuring the volume of said brain structure at different times and by automatically determining the change of said volume in function of time; - normalizing the deviation D to obtain a quantitative value Q of the volume change in order to compare said deviation D for voxel's belonging to different brain structures; - setting the intensity value of the voxels of the segmented brain structure to the previously obtained quantitative value Q; iii. displaying the voxels of the 3D voxel dataset in a longitudinal deviation map.
A method (400, 500) for heat management in a portable electronic device, the method comprising: measuring a current in the portable electronic device (402, 518); determining an operating state of the portable electronic device; dynamically setting a threshold for the current based on the operating state; determining whether the portable electronic device will overheat at the measured current for the determined operating state by determining whether the measured current is above the threshold; and turning off at least one component in the portable electronic device when it is determined that the portable electronic device will overheat (414, 522); wherein setting the threshold includes setting the threshold based on a maximum theoretical current for the operating state; and wherein the method further comprises incrementing a count value each time the current exceeds a threshold current based on the operating state; and turning off the portable electronic device when the count value exceeds a count threshold; wherein the count value is decremented for every a predetermined length of time of operation of the portable electronic device so that there is not a current reading over the threshold current. measuring a current in the portable electronic device (402, 518); determining an operating state of the portable electronic device; dynamically setting a threshold for the current based on the operating state; determining whether the portable electronic device will overheat at the measured current for the determined operating state by determining whether the measured current is above the threshold; and turning off at least one component in the portable electronic device when it is determined that the portable electronic device will overheat (414, 522); wherein setting the threshold includes setting the threshold based on a maximum theoretical current for the operating state; and wherein the method further comprises incrementing a count value each time the current exceeds a threshold current based on the operating state; and turning off the portable electronic device when the count value exceeds a count threshold; wherein the count value is decremented for every a predetermined length of time of operation of the portable electronic device so that there is not a current reading over the threshold current.
A fan nacelle for a gas turbine engine comprising: a static ring defined about an axis; a flap assembly including: a first flap assembly segment pivotally mounted to said static ring to define a first semi-annular fan exit throat area segment; and a second flap assembly segment pivotally mounted to said static ring to define a second semi-annular fan exit throat area segment; a first synchronizing ring segment rotatable about said axis relative said static ring; a second synchronizing ring segment rotatable about said axis relative said static ring; a first linkage mounted to said first synchronizing ring and said first flap assembly segment such that said first semi-annular fan exit throat area segment is adjustable in response to rotation of said first synchronizing ring segment; a second linkage mounted to said second synchronizing ring and said second flap assembly segment such that said second semi-annular fan exit throat area segment is adjustable independently of said first semi-annular fan exit throat area segment in response to rotation of said second synchronizing ring segment to selectively generate a thrust vector off said axis, wherein said flap assembly includes a hinge beam rod which extends through said static ring, and said hinge beam rod engages a slider block movable within each of a multitude of slots defined within said first synchronizing ring segment and said second synchronizing ring segment. a static ring defined about an axis; a flap assembly including: a first flap assembly segment pivotally mounted to said static ring to define a first semi-annular fan exit throat area segment; and a second flap assembly segment pivotally mounted to said static ring to define a second semi-annular fan exit throat area segment; a first flap assembly segment pivotally mounted to said static ring to define a first semi-annular fan exit throat area segment; and a second flap assembly segment pivotally mounted to said static ring to define a second semi-annular fan exit throat area segment; a first synchronizing ring segment rotatable about said axis relative said static ring; a second synchronizing ring segment rotatable about said axis relative said static ring; a first linkage mounted to said first synchronizing ring and said first flap assembly segment such that said first semi-annular fan exit throat area segment is adjustable in response to rotation of said first synchronizing ring segment; a second linkage mounted to said second synchronizing ring and said second flap assembly segment such that said second semi-annular fan exit throat area segment is adjustable independently of said first semi-annular fan exit throat area segment in response to rotation of said second synchronizing ring segment to selectively generate a thrust vector off said axis, wherein said flap assembly includes a hinge beam rod which extends through said static ring, and said hinge beam rod engages a slider block movable within each of a multitude of slots defined within said first synchronizing ring segment and said second synchronizing ring segment.
Lowerable sealing arrangement for a door without a threshold, comprising an elongate housing, a sealing strip held in a raisable and lowerable manner in the housing, and an actuating device for lowering and raising the sealing strip, wherein the actuating device has an actuating rod which is displaceable in the longitudinal direction of the housing and projects on one side from the housing, and a first lever unit (55, 66, 71) which is connected to the actuating rod, to the housing and to the sealing strip, wherein the first lever unit (55, 65, 71) comprises a connection lever (56, 66) and a control lever, wherein the connection lever (56, 66) is connected by a first free end to the housing in a pivotable and non-displaceable manner, wherein the connection lever (56, 66) is connected by a second free end pivotably to the sealing strip and wherein the control lever is connected by a first free end pivotably to the actuating rod and by a second free end pivotably to the connection lever (56, 66), characterized in that the sealing arrangement has at least a second lever unit (55, 66, 71) which is of identical design to the first lever unit (55, 66, 71) and is situated at a distance from the first lever unit (55, 66, 71).
A wind turbine rotor comprising: a blade rotor comprising a number of blades arranged to cause rotation when exposed to wind; and a generator comprising a generator rotor and a stator; said wind turbine further comprising connection means connecting said blade rotor to said generator rotor and arranged to transfer torque from said blade rotor to said generator rotor, wherein said connection means comprises two connection components associated with each blade and said two connection components are arranged so that, when the connection means transfers torque from the blade rotor to the generator rotor, one of said two connection components is in compression while the other of said two connection components is simultaneously under tension, characterised in that each of said two connection components is an elongate member which has a thickness in one direction which is at least twice the thickness in a perpendicular direction, so that each connection component is flexible in one direction but not in a perpendicular direction. a blade rotor comprising a number of blades arranged to cause rotation when exposed to wind; and a generator comprising a generator rotor and a stator; said wind turbine further comprising connection means connecting said blade rotor to said generator rotor and arranged to transfer torque from said blade rotor to said generator rotor, wherein said connection means comprises two connection components associated with each blade and said two connection components are arranged so that, when the connection means transfers torque from the blade rotor to the generator rotor, one of said two connection components is in compression while the other of said two connection components is simultaneously under tension, characterised in that each of said two connection components is an elongate member which has a thickness in one direction which is at least twice the thickness in a perpendicular direction, so that each connection component is flexible in one direction but not in a perpendicular direction.
Steam ironing appliance comprising an iron with a soleplate (2; 202) for ironing, coming into contact with laundry, comprising a front part (21; 221) equipped with steam outlets (20; 220) and a back part (22; 222) without steam outlets, the steam outlets (20; 220) being supplied by a diffusion chamber (30; 230) covering the front part (21; 221) of the soleplate, the diffusion chamber (30; 230) being supplied by a steam distribution circuit housed in a heating body (4; 204) in thermal contact with the back part (22; 222) of the soleplate, the diffusion chamber (30; 230) being housed in a unheated body (3; 203) positioned on the front part of the soleplate (2; 202), the unheated body (3; 203) being separate from the heating body (4; 204) positioned on the back part (22; 222) of the soleplate, characterised in that the soleplate is in one part and constructed in a stainless steel plate or in a sheet of aluminium with a thickness of less than 5 mm, the back part of the soleplate coming into contact with the heating body represents at least 30 % of the total surface area of the soleplate and ideally at least 50 % of the total surface area of the soleplate.
A head-worn display comprising: a light source, the light source to emit a plurality of light beams, a wavelength of at least one of the plurality of light beams to differ from a wavelength of at least one other of the plurality of light beams; a scanning mirror to scan the plurality of light beams in two distinct axes to form an image; a holographic optical element to receive the scanned plurality of light beams from the scanning mirror and to redirect the plurality of light beams to a plurality of spatially separated exit pupils (212, 304) to project the image at the plurality of exit pupils; and a frame to hold the light source, scanning mirror, and holographic optical element in fixed relation to one another, the frame adapted to be worn on the head of a user. a light source, the light source to emit a plurality of light beams, a wavelength of at least one of the plurality of light beams to differ from a wavelength of at least one other of the plurality of light beams; a scanning mirror to scan the plurality of light beams in two distinct axes to form an image; a holographic optical element to receive the scanned plurality of light beams from the scanning mirror and to redirect the plurality of light beams to a plurality of spatially separated exit pupils (212, 304) to project the image at the plurality of exit pupils; and a frame to hold the light source, scanning mirror, and holographic optical element in fixed relation to one another, the frame adapted to be worn on the head of a user.
An organic light emitting diode (OLED) device comprising an anode, a cathode and therebetween a light emitting layer containing a compound represented by Formula I below: wherein: each A is independently selected from N and P; each E is independently selected from N, P, and As; each Z is a radical independently selected from and each R is an independently selected substituent; and each R' is independently selected from H and a substituent; provided that two substituent groups can join to form a ring. each A is independently selected from N and P; each E is independently selected from N, P, and As; each Z is a radical independently selected from and each R is an independently selected substituent; and each R' is independently selected from H and a substituent;
A method for wireless communication, comprising: generating, at an user equipment, UE, a reference signal for multiple non-contiguous clusters of subcarriers based on at least one reference signal, RS, sequence, wherein each cluster covers a set of contiguous subcarriers on which the reference signal is transmitted, wherein each set comprises one or more resource blocks, wherein the reference signal is generated with code division multiplexing, CDM, or frequency division multiplexing, FDM, for multiplexing with other simultaneous transmissions of reference signals from other UEs, wherein a total length of the at least one RS sequence is determined based on a total length of the multiple non-contiguous clusters if the reference signal is generated with CDM, and wherein the reference signal is mapped to a subset of all subcarriers for the multiple non-contiguous clusters if the reference signal is generated with FDM; and transmitting, at the UE, the reference signal on the multiple non-contiguous clusters. generating, at an user equipment, UE, a reference signal for multiple non-contiguous clusters of subcarriers based on at least one reference signal, RS, sequence, wherein each cluster covers a set of contiguous subcarriers on which the reference signal is transmitted, wherein each set comprises one or more resource blocks, wherein the reference signal is generated with code division multiplexing, CDM, or frequency division multiplexing, FDM, for multiplexing with other simultaneous transmissions of reference signals from other UEs, wherein a total length of the at least one RS sequence is determined based on a total length of the multiple non-contiguous clusters if the reference signal is generated with CDM, and wherein the reference signal is mapped to a subset of all subcarriers for the multiple non-contiguous clusters if the reference signal is generated with FDM; and transmitting, at the UE, the reference signal on the multiple non-contiguous clusters.
A method of producing a compound of formula: wherein R 1, R 2, R 3, R 4, R 5, and R 6 are independently selected from H, C 1 -C 6 alkyl, C 3 -C 8 cycloalkyl, C 3 -C 8 cycloalkyl(C 1 -C 6 alkyl), aryl, aryl(C 1 -C 6 alkyl), heteroaryl, and heteroaryl(C 1 -C 6 alkyl); and X is selected from C 2 -C 20 alkylene, C 2 -C 20 heteroalkylene, C 2 -C 20 alkenylene, C 2 -C 20 alkynylene, C 3 -C 8 cycloalkyl, aryl, and -Y-Z-Y-; wherein each Y independently is C 1 -C 10 alkylene, or C 2 -C 10 heteroalkylene, and Z is aryl, heteroaryl, or heterocyclyl; the method comprising reacting a compound of formula: wherein R 1, R 2, R 3, R 4, R 5, R 6, and X are as defined above; with H 2 in a solvent and in the presence of: a) a catalyst, b) at least 0.1 molar equivalents of a nitro(C 1 -C 10 alkane) optionally substituted with one or more OH groups, and c) at least 0.1 molar equivalents of formaldehyde. R 1, R 2, R 3, R 4, R 5, and R 6 are independently selected from H, C 1 -C 6 alkyl, C 3 -C 8 cycloalkyl, C 3 -C 8 cycloalkyl(C 1 -C 6 alkyl), aryl, aryl(C 1 -C 6 alkyl), heteroaryl, and heteroaryl(C 1 -C 6 alkyl); and X is selected from C 2 -C 20 alkylene, C 2 -C 20 heteroalkylene, C 2 -C 20 alkenylene, C 2 -C 20 alkynylene, C 3 -C 8 cycloalkyl, aryl, and -Y-Z-Y-; wherein each Y independently is C 1 -C 10 alkylene, or C 2 -C 10 heteroalkylene, and Z is aryl, heteroaryl, or heterocyclyl; wherein each Y independently is C 1 -C 10 alkylene, or C 2 -C 10 heteroalkylene, and Z is aryl, heteroaryl, or heterocyclyl;
A light emitting structure comprising: a semiconductor light emitting device comprising a light emitting layer disposed between an n-type region and a p-type region, wherein the light emitting layer is adapted to emit first light having a first peak wavelength; a first wavelength converting material adapted to absorb the first light and emit second light having a second peak wavelength; a second wavelength converting material adapted to absorb one of the first light and the second light and emit third light having a third peak wavelength; wherein the first and second wavelength converting materials are disposed in a path of light emitted by the semiconductor light emitting device; and an RGB filter disposed beyond the first and second wavelength converting materials in the path of the light emitted by the semiconductor light emitting device, characterized by a first filter adapted to reflect fourth light having a fourth peak wavelength that is absorbed by the RGB filter and transmit light having a peak wavelength longer or shorter than the fourth peak wavelength, wherein the fourth light comprises at least one of a portion of the second light and a portion of the third light, and wherein the first filter is disposed between one of the first and second wavelength converting materials and the RGB filter in the path of the light emitted by the semiconductor light emitting device. a semiconductor light emitting device comprising a light emitting layer disposed between an n-type region and a p-type region, wherein the light emitting layer is adapted to emit first light having a first peak wavelength; a first wavelength converting material adapted to absorb the first light and emit second light having a second peak wavelength; a second wavelength converting material adapted to absorb one of the first light and the second light and emit third light having a third peak wavelength; wherein the first and second wavelength converting materials are disposed in a path of light emitted by the semiconductor light emitting device; and an RGB filter disposed beyond the first and second wavelength converting materials in the path of the light emitted by the semiconductor light emitting device, characterized by a first filter adapted to reflect fourth light having a fourth peak wavelength that is absorbed by the RGB filter and transmit light having a peak wavelength longer or shorter than the fourth peak wavelength, wherein the fourth light comprises at least one of a portion of the second light and a portion of the third light, and wherein the first filter is disposed between one of the first and second wavelength converting materials and the RGB filter in the path of the light emitted by the semiconductor light emitting device.