mhurhangee/ep-ind-claims huggingface dataset:
A tubular threaded joint comprising a pin which is a male threaded element formed on an end portion of a first tubular member and a box which is a female threaded element formed on an end portion of a second tubular member, the pin and the box each having a threaded zone (11,21) and at least one torque shoulder surface (14,24), the male threaded zone of the pin engaging with the female threaded zone of the box, the at least one torque shoulder surface of the pin abutting against the at least one torque shoulder surface of the box in the axial direction of the pipe, one of the abutting torque shoulder surfaces (14,24) being an end shoulder surface constituting an end surface in the transverse direction of the member, the threads of the male threaded zone and the female threaded zone being generally trapezoidal threads which have a thread crest, a load flank, and a stabbing flank and which have a root separating the thread, wherein the lip length of the member having an end shoulder surface, which is the axial distance between the end shoulder surface and the load flank of the closest engaged thread to the end shoulder surface, is at least 140 times the stabbing flank clearance, which is the axial distance of the clearance between the stabbing flanks of the male thread and the female thread when the load flank of the male threads and that of the female thread contact each other in the engaged threads of the pin and box, wherein the thread of at least one of the pin and box has a stabbing flank which comprises a first portion on the root side and a second portion on the thread crest side, and the second portion has a larger average angle of slope with respect to a line perpendicular to the longitudinal axis of the joint than the first portion, the first portion is parallel to the stabbing flank of the screw thread of the other member, and the first portion has a surface with a first height and at least 50% of the first height is conical and the second portion is a chamfered portion and a chamfer of the chamfered portion is a chamfer with a second height and at least 50% of the second height is conical, and wherein the thread crests and roots of the male and female threads are parallel to the axial direction of the tubular threaded joint.
Method for producing a textile part (A; A1, A2), comprising a step of forming a stitched seam (c1, c2, c3; C), the method being characterized in that the stitched seam step also aims to secure an electronic tag to the textile part (A; A1, A2), the electronic tag being formed from a strip consisting of two portions of textile strip (2a, 2b) which are assembled and sealed together by their main faces and between which a wired electronic device is sandwiched, a wired electronic device comprising a chip electrically connected to at least one electrical antenna wire, the chip and the electrical antenna wire being arranged inside the stitched seam (c1, c2, c3; C).
A wireless communication device, comprising: an encoder adapted to encode data in accordance with information that the data will be transmitted as part of a non-orthogonal transmission; a transmitter circuit adapted to wirelessly transmit the encoded data output by the encoder; wherein the encoded data is non-orthogonally combined as part of a non-orthogonal transmission; the data to be encoded includes a first data stream for a first device and a second data stream for a second device; the encoder includes a joint encoder to encode and non-orthogonally combine the first data stream and the second data stream; the transmitter circuit wirelessly transmits the encoded and non-orthogonally combined first and second data streams as a downlink transmission; wherein the joint encoder encodes and non-orthogonally combines the first data stream and the second data stream by: determining a power allocation between the first data stream and the second data stream; selecting a first precoding matrix for the first data stream while assuming no interference from the second data stream; and selecting a second precoding matrix for the second data stream while accounting for interference caused by the first data stream. an encoder adapted to encode data in accordance with information that the data will be transmitted as part of a non-orthogonal transmission; a transmitter circuit adapted to wirelessly transmit the encoded data output by the encoder; wherein the encoded data is non-orthogonally combined as part of a non-orthogonal transmission; the data to be encoded includes a first data stream for a first device and a second data stream for a second device; the encoder includes a joint encoder to encode and non-orthogonally combine the first data stream and the second data stream; the transmitter circuit wirelessly transmits the encoded and non-orthogonally combined first and second data streams as a downlink transmission; wherein the joint encoder encodes and non-orthogonally combines the first data stream and the second data stream by: determining a power allocation between the first data stream and the second data stream; selecting a first precoding matrix for the first data stream while assuming no interference from the second data stream; and selecting a second precoding matrix for the second data stream while accounting for interference caused by the first data stream. determining a power allocation between the first data stream and the second data stream; selecting a first precoding matrix for the first data stream while assuming no interference from the second data stream; and selecting a second precoding matrix for the second data stream while accounting for interference caused by the first data stream.
A tool turret with a drive device for alternatively driving a tool disc of the tool turret and at least one machining tool which can be secured on the tool disc by means of a retaining device, by two drive means (8, 10) which can be driven by a common drive device that has a drive shaft, the drive means (8, 10) being able to be connected to output means (20, 22) via a coupling device which can respectively be actuated by at least one actuating device, which output means are used for alternatively driving the tool disc or the machining tool, characterised in that at least the drive device together with the drive means (8, 10) is located within the tool disc, that the drive device consisting of an electric motor with its coil winding is located on a column of the tool turret, relative to which column the tool disc is pivot-mounted around a pivot axis which runs perpendicular to the drive shaft of the electric motor, that between the drive means which are used to drive the tool disc and the tool disc there is a Wolfrom planetary gear system by means of which the drive energy is transmitted to the tool disc when output means for the tool disc are connected to the corresponding drive means of the coupling device.
Furniture board, with two large-surface faces, and circumferential narrow sides, where the furniture board is provided with a surface coating and with an identifier that can be operated by radio signal and is arranged in the interior of the furniture board, and where the identifier is arranged in a recess extending at an oblique angle to the surface normals of the furniture board.
A packaging comprising one or more administration units comprising a sodium salt of -3-[6-amino-pyridin-3-yl]-2-(1-cyclohexyl-1 H-imidazol-4-yl)-propionic acid wherein the sodium salt of -3-[6-amino-pyridin-3-yl]-2-(1-cyclohexyl-1 H-imidazol-4-yl)-propionic acid is a crystalline sodium monohydrate salt, which exhibits in an X-ray powder diffraction pattern measured in transmission with CuKa1 radiation at room temperature a characteristic reflection at degrees 2 theta of 22.2, 16.5 and 6.3, each time ± 0.2 degrees 2 theta; or a crystalline sodium anhydrate salt, which exhibits in an X-ray powder diffraction pattern measured in transmission with CuKa1 radiation at 110°C a characteristic reflection at degrees 2 theta of 21.4, 16.8 and 6.1, each time ± 0.2 degrees 2 theta.
An article comprising: an inorganic filler, wherein the inorganic filler comprises kaolin clay; 3 % to 20 % fully hydrolyzed polyvinyl alcohol fibers, wherein the percentages are by weight; a polymer binder; and high surface area fibers comprising glass microfibers, wherein the article is formed as a nonwoven paper. an inorganic filler, wherein the inorganic filler comprises kaolin clay; 3 % to 20 % fully hydrolyzed polyvinyl alcohol fibers, wherein the percentages are by weight; a polymer binder; and high surface area fibers comprising glass microfibers, wherein the article is formed as a nonwoven paper.
A system for housing an object, which housing system is intended to be housed in a casing of a device for the automatic and instantaneous detection of movements of an object, which system comprises first and second strips (2, 3) facing one another, each strip comprising a first movable part (2a, 3a), the first movable parts being arranged so as to define therebetween a space for housing the object, each movable part (2a, 3a) having a fixed first end (5a, 5b) and bearing at its second end (6a, 6b) on a pressure means of a push button arranged to move along a vertical axis A v between a first position corresponding to the placement of the object in the housing space inducing a separation of the second ends (6a, 6b) from one another, and a second position corresponding to the removal of the object from the housing space bringing the second ends (6a, 6b) closer to one another, said pressure means being a plate arranged to be connected via at least a first compression spring to at least a bottom wall portion of said casing whereupon said at least one compression spring bears, each strip (2, 3) comprising a second movable part (9a, 9b) connected to the second end (6a, 6b) of the first movable part (2a, 3a) by an articulation means (10a, 10b), each second movable part (9a, 9b) having a first end connected to said articulation means (10a, 10b) and a fixed second end (11a, 11b) connected by a first connecting means to said plate, said push button being securely connected to the plate via a second connecting means, the system comprising a second compression spring, which second compression spring is arranged between the push button and a back face of the plate, the push button further being arranged to pass through an orifice present on the bottom wall of said casing, said push button being arranged to come into contact with a pressure sensor, which pressure sensor is connected to a processing unit for processing a first signal emitted by the sensor when contact is created between the push button and the pressure sensor, and a second signal emitted by the sensor when said contact is broken.
A guidewire device having a shapeable tip, the guidewire device comprising: a core having a proximal section and a distal section; and a tube structure coupled to the core such that the distal section of the core passes into the tube structure, the tube structure having a first section and a second section distal to the first section, wherein the tube structure includes a cut pattern which forms a plurality of axially extending beams coupling a plurality of circumferentially extending rings, wherein the cut pattern forms a single beam between each pair of adjacent rings within the second section, the beams in the second section forming a preferred bending plane, wherein at least a portion of the distal section of the core passing through the second section of the tube is a flat ribbon having a major plane lying substantially perpendicular to the preferred bending plane, and wherein a distal tip of the guidewire device is configured to be manually shapeable. a core having a proximal section and a distal section; and a tube structure coupled to the core such that the distal section of the core passes into the tube structure, the tube structure having a first section and a second section distal to the first section, wherein the tube structure includes a cut pattern which forms a plurality of axially extending beams coupling a plurality of circumferentially extending rings, wherein the cut pattern forms a single beam between each pair of adjacent rings within the second section, the beams in the second section forming a preferred bending plane, wherein the tube structure includes a cut pattern which forms a plurality of axially extending beams coupling a plurality of circumferentially extending rings, wherein the cut pattern forms a single beam between each pair of adjacent rings within the second section, the beams in the second section forming a preferred bending plane, wherein at least a portion of the distal section of the core passing through the second section of the tube is a flat ribbon having a major plane lying substantially perpendicular to the preferred bending plane, and wherein a distal tip of the guidewire device is configured to be manually shapeable.
A device (100, 200) for determining an angle (φ) between two workpiece surfaces (1, 2), comprising: an emitter for generating a light beam, a continuously rotating straightening rotor for radiating the generated light beam in a rotating radiation direction perpendicular to a rotation axis of the straightening rotor as a radiated light beam, a receiver for receiving a reflected light beam when the axis of rotation of the straightening rotor is arranged axially parallel to a vertex axis of the angle (φ) and the radiated light beam is reflected from one of the two workpiece surfaces (1, 2) antiparallel to the radiation direction, a radiation angle sensor unit for determining respective radiation angles (α 1, α 2) of the radiated light beam at which the receiver receives the reflected light beam, characterized by a calibration unit for determining at least calibration parameters, a storage unit for storing the calibration parameters and an error model (f(α)), the calibration parameters being coefficients of a mathematical function of the error model, the error model describing an angle-dependent error of the radiation angle determined by the radiation angle sensor unit, the angle-dependent error having a device-specific error cause, and an evaluation unit configured to determine the angle (φ) as a function of the determined radiation angles (α 1, α 2) of the light beam emitted by the straightening rotor, the stored calibration parameters and the stored error model (f(α)). an emitter for generating a light beam, a continuously rotating straightening rotor for radiating the generated light beam in a rotating radiation direction perpendicular to a rotation axis of the straightening rotor as a radiated light beam, a receiver for receiving a reflected light beam when the axis of rotation of the straightening rotor is arranged axially parallel to a vertex axis of the angle (φ) and the radiated light beam is reflected from one of the two workpiece surfaces (1, 2) antiparallel to the radiation direction, a radiation angle sensor unit for determining respective radiation angles (α 1, α 2) of the radiated light beam at which the receiver receives the reflected light beam, characterized by a calibration unit for determining at least calibration parameters, a storage unit for storing the calibration parameters and an error model (f(α)), the calibration parameters being coefficients of a mathematical function of the error model, the error model describing an angle-dependent error of the radiation angle determined by the radiation angle sensor unit, the angle-dependent error having a device-specific error cause, and an evaluation unit configured to determine the angle (φ) as a function of the determined radiation angles (α 1, α 2) of the light beam emitted by the straightening rotor, the stored calibration parameters and the stored error model (f(α)).
A light scanning unit, comprising: a light source (110;210a) emitting a light beam; a light deflector (150;250) deflection-scanning the light beam; and an imaging optical system which forms an image of the deflected light beam on a surface to be scanned, the imaging optical system comprising at least two imaging optical devices (160, 170; 260a, 270a) that are disposed on a light path between the light deflector and the surface to be scanned and inclined with respect to the light path, the imaging optical system further comprising one or more reflection units (190;290) and characterised in that said one or more reflection units are diposed between an adjacent two of the imaging optical devices (160,170); wherein the two adjacent imaging optical devices from among the at least two imaging optical devices are inclined with respect to the light path such that inclination directions of the two adjacent imaging optical devices are determined according to the number of reflection units that are disposed on the light path between the two adjacent imaging optical devices;. wherein, in the case of an odd number of the reflection units are disposed on the light path between the two adjacent imaging optical devices (160,170), the two adjacent imaging optical devices are inclined in directions opposite to each other; and wherein, in the case of an even number of the reflection units are disposed on the light path between the two adjacent imaging optical devices (160, 170), the two adjacent imaging optical devices are inclined in the same direction. a light source (110;210a) emitting a light beam; a light deflector (150;250) deflection-scanning the light beam; and an imaging optical system which forms an image of the deflected light beam on a surface to be scanned, the imaging optical system comprising at least two imaging optical devices (160, 170; 260a, 270a) that are disposed on a light path between the light deflector and the surface to be scanned and inclined with respect to the light path, the imaging optical system further comprising one or more reflection units (190;290) and characterised in that said one or more reflection units are diposed between an adjacent two of the imaging optical devices (160,170); wherein the two adjacent imaging optical devices from among the at least two imaging optical devices are inclined with respect to the light path such that inclination directions of the two adjacent imaging optical devices are determined according to the number of reflection units that are disposed on the light path between the two adjacent imaging optical devices;. wherein, in the case of an odd number of the reflection units are disposed on the light path between the two adjacent imaging optical devices (160,170), the two adjacent imaging optical devices are inclined in directions opposite to each other; and wherein, in the case of an even number of the reflection units are disposed on the light path between the two adjacent imaging optical devices (160, 170), the two adjacent imaging optical devices are inclined in the same direction.
A terminal apparatus comprising at least one processor and a memory coupled to the at least one processor, the processor configured to: receive at least one physical downlink control channel, PDCCH, with a downlink control information, DCI, format; and receive a physical downlink shared channel, PDSCH, corresponding to a resource indication value, RIV, that is configured in a "frequency domain resource assignment" field of the DCI format and that is given at least based on a type of search space in which the PDCCH is detected; wherein in a case where the terminal apparatus is configured to monitor a first PDCCH candidate in a common search space, CSS, and a second PDCCH candidate in a user equipment specific search space, USS, according to the DCI format with a cell radio network temporary identifier, C-RNTI, a set of control channel elements, CCEs, constituting the first PDCCH candidate is the same as a set of CCEs constituting the second PDCCH candidate, a scrambling sequence for the first PDCCH candidate is the same as a scrambling sequence for the second PDCCH candidate, and the size of the DCI format corresponding to the first PDCCH candidate is the same as the size of the DCI format corresponding to the second PDCCH candidate, the processor is further configured to: monitor the PDCCH with the DCI format only on the first PDCCH candidate in the CSS among the first PDCCH candidate in the CSS and the second PDCCH candidate in the USS. receive at least one physical downlink control channel, PDCCH, with a downlink control information, DCI, format; and receive a physical downlink shared channel, PDSCH, corresponding to a resource indication value, RIV, that is configured in a "frequency domain resource assignment" field of the DCI format and that is given at least based on a type of search space in which the PDCCH is detected; wherein in a case where the terminal apparatus is configured to monitor a first PDCCH candidate in a common search space, CSS, and a second PDCCH candidate in a user equipment specific search space, USS, according to the DCI format with a cell radio network temporary identifier, C-RNTI, a set of control channel elements, CCEs, constituting the first PDCCH candidate is the same as a set of CCEs constituting the second PDCCH candidate, a scrambling sequence for the first PDCCH candidate is the same as a scrambling sequence for the second PDCCH candidate, and the size of the DCI format corresponding to the first PDCCH candidate is the same as the size of the DCI format corresponding to the second PDCCH candidate, the processor is further configured to: monitor the PDCCH with the DCI format only on the first PDCCH candidate in the CSS among the first PDCCH candidate in the CSS and the second PDCCH candidate in the USS.
A lighting apparatus comprising a lighting cup and a waveguide having an end at the lighting cup, the lighting cup configured to emit light into the end of the waveguide, and the waveguide comprising a reflector aligned along a length of the waveguide for emitting the light from the waveguide, wherein the lighting apparatus further comprises a light emitting diode, LED, package (30, 32) mounted inside the lighting cup, and characterised in that the lighting cup is filled with an encapsulant material to exclude gases in the environment away from any conductors of the LED package that could cause sparking.
A communication method, comprising: performing, by a network device on a preconfigured resource, data demodulation on uplink data sent by a terminal device; and sending, by the network device, downlink control information DCI to the terminal device wherein the DCI comprises first indication information, and if the uplink data fails to be demodulated the first indication information is used to indicate that the uplink data fails to be demodulated, and characterized in that the DCI further comprises second indication information, and the second indication information is used to indicate a timing advance TA of the terminal device. performing, by a network device on a preconfigured resource, data demodulation on uplink data sent by a terminal device; and sending, by the network device, downlink control information DCI to the terminal device wherein the DCI comprises first indication information, and if the uplink data fails to be demodulated the first indication information is used to indicate that the uplink data fails to be demodulated, and characterized in that the DCI further comprises second indication information, and the second indication information is used to indicate a timing advance TA of the terminal device.