mhurhangee/patent-ind-claim-en huggingface dataset:
An inside handle device for a vehicle comprising: an operating handle which is connected to a handle base fixed to a door of a vehicle so as to be rotatably operable from an initial rotation position to an operation rotation position; and a torsion spring in which one arm portion extending from a coil portion is engaged with an engaging portion of the handle base and in which the other arm portion is engaged with an engaging portion of the operating handle , so as to urge the operating handle toward an initial rotation position side, wherein the torsion spring is mounted in a wound state so that the coil portion is urged in a moving direction away from or toward an engaged position of the one arm portion or an engaged position of the other arm portion in an entire stroke from a set state corresponding to the initial rotation position of the operating handle to an operation state corresponding to the operation rotation position of the operating handle , characterized in that the one arm portion or the other arm portion is constrained in the moving direction of the coil portion and is allowed to move in a direction opposite to the moving direction to be engaged with the corresponding engaging portion . an operating handle which is connected to a handle base fixed to a door of a vehicle so as to be rotatably operable from an initial rotation position to an operation rotation position; and a torsion spring in which one arm portion extending from a coil portion is engaged with an engaging portion of the handle base and in which the other arm portion is engaged with an engaging portion of the operating handle , so as to urge the operating handle toward an initial rotation position side, wherein the torsion spring is mounted in a wound state so that the coil portion is urged in a moving direction away from or toward an engaged position of the one arm portion or an engaged position of the other arm portion in an entire stroke from a set state corresponding to the initial rotation position of the operating handle to an operation state corresponding to the operation rotation position of the operating handle , characterized in that the one arm portion or the other arm portion is constrained in the moving direction of the coil portion and is allowed to move in a direction opposite to the moving direction to be engaged with the corresponding engaging portion .
A lens unit that can be attached to and detached from an image capture apparatus , the lens unit comprising: communication means for communicating with the image capture apparatus to which the lens unit is attached; a memory in which an optical correction data for correcting image deterioration caused by optical characteristics of the lens unit is stored, wherein the optical correction data includes optical correction values held for sets of first and second optical parameters; control means for transmitting the optical correction data, the first optical parameters, and the second optical parameter to the image capture apparatus to which the lens unit is attached via the communication means, wherein the first optical parameters and the second optical parameter are optical parameters regarding the optical characteristics present during shooting, wherein the first optical parameters include an optical parameter corresponding to specific value of the focal length, wherein the second optical parameter indicates positional information of an optical component that controls the focal length of the lens unit. communication means for communicating with the image capture apparatus to which the lens unit is attached; a memory in which an optical correction data for correcting image deterioration caused by optical characteristics of the lens unit is stored, wherein the optical correction data includes optical correction values held for sets of first and second optical parameters; control means for transmitting the optical correction data, the first optical parameters, and the second optical parameter to the image capture apparatus to which the lens unit is attached via the communication means, a memory in which an optical correction data for correcting image deterioration caused by optical characteristics of the lens unit is stored, wherein the optical correction data includes optical correction values held for sets of first and second optical parameters; control means for transmitting the optical correction data, the first optical parameters, and the second optical parameter to the image capture apparatus to which the lens unit is attached via the communication means, wherein the first optical parameters and the second optical parameter are optical parameters regarding the optical characteristics present during shooting, wherein the first optical parameters include an optical parameter corresponding to specific value of the focal length, wherein the second optical parameter indicates positional information of an optical component that controls the focal length of the lens unit.
A vehicle lamp comprising: a light source ; a lens disposed in front of the light source ; a housing combined with the lens to form a lamp space in which the light source is disposed; and a vent portion provided on the housing to allow ventilation between the lamp space and a space outside the housing , wherein the lamp space includes a narrow gap region having a width of 10 mm or less between the lens and the housing , the width corresponding to a distance therebetween, the vent portion is provided on the housing at a position facing the narrow gap region , characterized in that , the light source is an LED light bulb and the vent portion is an air-permeable membrane including a porous resin membrane, and the air-permeable membrane is attached to the housing so as to cover a vent hole formed in the housing . a light source ; a lens disposed in front of the light source ; a housing combined with the lens to form a lamp space in which the light source is disposed; and a vent portion provided on the housing to allow ventilation between the lamp space and a space outside the housing , wherein the lamp space includes a narrow gap region having a width of 10 mm or less between the lens and the housing , the width corresponding to a distance therebetween, the vent portion is provided on the housing at a position facing the narrow gap region , characterized in that , the light source is an LED light bulb and the vent portion is an air-permeable membrane including a porous resin membrane, and the air-permeable membrane is attached to the housing so as to cover a vent hole formed in the housing .
A turbomachine assembly comprising: • a casing comprising: - an inner hub , - an outer shroud extending around and away from the inner hub , - a hollow arm provided with a longitudinal cavity and connecting the inner hub and the outer shroud , • a tube configured to extend inside the longitudinal cavity of the hollow arm of the casing and comprising a central bracket comprising two elastic blades and configured to exert a pressure on the longitudinal cavity wall when the tube is extended within the longitudinal cavity , characterized in that the elastic blades are brazed to the tube or linked to a support configured to be added onto the tube , in that each of the elastic blades has a U shape such that, once it is disposed on the tube , the tube extends into the recess of the U shapes formed by each of the blades , and in that the material(s) of the elastic blades has/have a stress-strain curve comprised between the minimum and maximum stress curves of the following table. Deformation (%) Minimal stress associated (MPa) Maximal stress associated (MPa) 0.5 800 1,250 1 850 1,300 2 900 1,400 5 950 1,470 7.5 1,000 1,500 • a casing comprising: - an inner hub , - an outer shroud extending around and away from the inner hub , - a hollow arm provided with a longitudinal cavity and connecting the inner hub and the outer shroud , - an inner hub , - an outer shroud extending around and away from the inner hub , - a hollow arm provided with a longitudinal cavity and connecting the inner hub and the outer shroud , • a tube configured to extend inside the longitudinal cavity of the hollow arm of the casing and comprising a central bracket comprising two elastic blades and configured to exert a pressure on the longitudinal cavity wall when the tube is extended within the longitudinal cavity ,
An apparatus of user equipment , UE, the apparatus comprising: processing circuitry ; and transceiver circuitry controlled by the processing circuitry, the processing and transceiver circuitry being configured to: configure the UE to concurrently communicate with a primary cell , PCell, and a secondary cell , SCell via associated channels; when a total desired power exceeds a maximum power for a subframe: allocate a minimum power for a scheduled uplink transmission to the channels associated with the SCell and the PCell; allocate at least some remaining power to a scheduled uplink transmission to the PCell based on a priority of the scheduled uplink transmission when the scheduled uplink transmission to the SCell includes control information and when the scheduled uplink transmission to the SCell and the scheduled uplink transmission to the PCell are concurrent; and transmit the scheduled uplink transmission to the SCell and the scheduled uplink transmission to the PCell in accordance with respective power allocations. configure the UE to concurrently communicate with a primary cell , PCell, and a secondary cell , SCell via associated channels; when a total desired power exceeds a maximum power for a subframe: allocate a minimum power for a scheduled uplink transmission to the channels associated with the SCell and the PCell; allocate at least some remaining power to a scheduled uplink transmission to the PCell based on a priority of the scheduled uplink transmission when the scheduled uplink transmission to the SCell includes control information and when the scheduled uplink transmission to the SCell and the scheduled uplink transmission to the PCell are concurrent; and allocate a minimum power for a scheduled uplink transmission to the channels associated with the SCell and the PCell; allocate at least some remaining power to a scheduled uplink transmission to the PCell based on a priority of the scheduled uplink transmission when the scheduled uplink transmission to the SCell includes control information and when the scheduled uplink transmission to the SCell and the scheduled uplink transmission to the PCell are concurrent; and transmit the scheduled uplink transmission to the SCell and the scheduled uplink transmission to the PCell in accordance with respective power allocations.
A pharmaceutical composition comprising 500 mg to 650 mg amikacin or a pharmaceutically acceptable salt thereof, encapsulated in a plurality of liposomes, wherein the lipid component of the plurality of liposomes consists of dipalmitoylphosphatidylcholine (DPPC) and cholesterol for use in the treatment of a Mycobacterium avium complex (MAC) lung infection, the treatment comprising: administering the pharmaceutical composition to the lungs of a patient during an administration period of at least 3 months, wherein administering the pharmaceutical composition to the lungs of the patient comprises aerosolizing the pharmaceutical composition to provide an aerosolized pharmaceutical composition comprising a mixture of free amikacin or pharmaceutically acceptable salt thereof and liposomal complexed amikacin or pharmaceutically acceptable salt thereof, and administering the aerosolized pharmaceutical composition via a nebulizer to the lungs of the patient once daily in a single dosing session during the administration period, administering to the patient one or more additional therapeutic agents selected from a macrolide antibiotic, a rifamycin, and ethambutol, and wherein the patient achieves a negative MAC sputum culture during or subsequent to the administration period. administering the pharmaceutical composition to the lungs of a patient during an administration period of at least 3 months, wherein administering the pharmaceutical composition to the lungs of the patient comprises aerosolizing the pharmaceutical composition to provide an aerosolized pharmaceutical composition comprising a mixture of free amikacin or pharmaceutically acceptable salt thereof and liposomal complexed amikacin or pharmaceutically acceptable salt thereof, and administering the aerosolized pharmaceutical composition via a nebulizer to the lungs of the patient once daily in a single dosing session during the administration period, administering to the patient one or more additional therapeutic agents selected from a macrolide antibiotic, a rifamycin, and ethambutol, and wherein the patient achieves a negative MAC sputum culture during or subsequent to the administration period.
Method for manufacturing panels having a decorative surface, wherein said panels at least comprise a substrate and a top layer , wherein said top layer comprises a paper layer having a printed pattern, and wherein said method at least comprises the step of providing said paper layer with at least a portion of said printed pattern prior to impregnating said paper layer with thermosetting resin, wherein said paper layer is a colored base paper, the colour of the paper being chosen to thereby limit the dry weight of deposited ink for attaining said pattern, whereby for providing said portion of said printed pattern use is made of pigment containing inks deposited on said paper layer by means of a digital inkjet printer , in that the dry weight of the total volume of said pigment containing inks deposited on said paper layer is lower than 10 grams per square meter, said inks being a water based ink, and in that the method further comprises impregnating said paper layer with thermosetting resin after printing said paper layer with said pattern and providing a layer of transparent or translucent thermosetting resin above said paper layer having said printed pattern such that the layer of thermosetting resin above the printed pattern and the thermosetting resin of the printed paper layer interact and bind during a subsequent pressing operation.
A method of motion planning, comprising: observing an object with a camera of an agent from a plurality of different poses of the camera, ; characterized by : determining an expected volume of the object based on a joint visual hull, wherein the joint visual hull is calculated as an intersection of a plurality of three-dimensional, 3D, hulls determined from silhouette images of the object observed with the camera at the plurality of different poses; determining at least one subsequent control input of a plurality of potential subsequent control inputs to move the agent and the camera to observe the object from a subsequent pose , using sequential or batch processing of the plurality of potential subsequent control inputs, wherein the subsequent input for movement of the camera and agent is determined from a set of possible movements by minimizing the expected volume of the object in dependence on the determined 3D visual hulls; and controlling the agent and the camera to move to a location corresponding to at least one subsequent pose based on the determined at least one subsequent control input . observing an object with a camera of an agent from a plurality of different poses of the camera, ; characterized by : determining an expected volume of the object based on a joint visual hull, wherein the joint visual hull is calculated as an intersection of a plurality of three-dimensional, 3D, hulls determined from silhouette images of the object observed with the camera at the plurality of different poses; determining at least one subsequent control input of a plurality of potential subsequent control inputs to move the agent and the camera to observe the object from a subsequent pose , using sequential or batch processing of the plurality of potential subsequent control inputs, wherein the subsequent input for movement of the camera and agent is determined from a set of possible movements by minimizing the expected volume of the object in dependence on the determined 3D visual hulls; and controlling the agent and the camera to move to a location corresponding to at least one subsequent pose based on the determined at least one subsequent control input . determining an expected volume of the object based on a joint visual hull, wherein the joint visual hull is calculated as an intersection of a plurality of three-dimensional, 3D, hulls determined from silhouette images of the object observed with the camera at the plurality of different poses; determining at least one subsequent control input of a plurality of potential subsequent control inputs to move the agent and the camera to observe the object from a subsequent pose , using sequential or batch processing of the plurality of potential subsequent control inputs, wherein the subsequent input for movement of the camera and agent is determined from a set of possible movements by minimizing the expected volume of the object in dependence on the determined 3D visual hulls; and controlling the agent and the camera to move to a location corresponding to at least one subsequent pose based on the determined at least one subsequent control input .
A power tool , comprising: a motor ; a power terminal configured to access a power supply of a battery pack ; a detection module capable of detecting that a first circuit between the power terminal and the battery pack is in a power-on mode or a power-off mode; and a controller capable of controlling a second circuit between the power terminal and the motor to be in a power-on mode or a power-off mode; wherein the controller is configured to, when the detection module detects that the first circuit is switched from the power-on mode to the power-off mode, control the second circuit to be in the power-off mode within a first preset time, characterized in that , the first preset time is greater than or equal to a coast time of the motor, wherein the coast time is the period of time for which the motor does not stop rotating immediately but coasts under the action of inertia after the power supply is stopped. a motor ; a power terminal configured to access a power supply of a battery pack ; a detection module capable of detecting that a first circuit between the power terminal and the battery pack is in a power-on mode or a power-off mode; and a controller capable of controlling a second circuit between the power terminal and the motor to be in a power-on mode or a power-off mode; wherein the controller is configured to, when the detection module detects that the first circuit is switched from the power-on mode to the power-off mode, control the second circuit to be in the power-off mode within a first preset time, characterized in that , the first preset time is greater than or equal to a coast time of the motor, wherein the coast time is the period of time for which the motor does not stop rotating immediately but coasts under the action of inertia after the power supply is stopped.
A compression piston ring having a running-surface region , an upper flank , a lower flank and also an inner circumferential surface , wherein the running-surface region is provided with a profiled section, which, as viewed over the axial height of the running-surface region , comprises mutually spaced, convexly spherically constructed sections having an upper and lower apex (So; Su), wherein a groove with a depth (Tn) is arranged between the apexes (So, Su), wherein the spherical sections (12; 14) are arranged asymmetrically with respect to one another, with respect to the axial height (H) of the running-surface region, characterized in that both apexes (So, Su) are arranged below a centre (M) of the piston ring in axial direction.
A computer-implemented method comprising: receiving a map update for at least a first tile comprising map update data, the map update comprising updated map data for the first tile and previous map data for the first tile corresponding to all changed or new links intersected by a tile boundary between the first tile and a second tile; determining a map region of interest, the map region of interest comprising at least a portion of the first tile; in response to determining that the map region of interest comprises at least a portion of the second tile, determining if a map update for the second tile has been received; when it is determined that a map update for the second tile has been received, not using or displaying the previous map data for the changed or new links intersected by the tile boundary and using or displaying updated map data for the portion of the first tile within the map region of interest ; and when it is determined that a map update for the second tile has not been received, using or displaying the previous map data for the changed or new links intersected by the tile boundary . receiving a map update for at least a first tile comprising map update data, the map update comprising updated map data for the first tile and previous map data for the first tile corresponding to all changed or new links intersected by a tile boundary between the first tile and a second tile; determining a map region of interest, the map region of interest comprising at least a portion of the first tile; in response to determining that the map region of interest comprises at least a portion of the second tile, determining if a map update for the second tile has been received; when it is determined that a map update for the second tile has been received, not using or displaying the previous map data for the changed or new links intersected by the tile boundary and using or displaying updated map data for the portion of the first tile within the map region of interest ; and when it is determined that a map update for the second tile has not been received, using or displaying the previous map data for the changed or new links intersected by the tile boundary .