mhurhangee/ep-ind-claims huggingface dataset:
A load detector, comprising: a first beam-type load cell which is supported on a first support base in a cantilever manner to have a free end; a second beam-type load cell which is disposed to face the first beam-type load cell and which is supported on a second support base in a cantilever manner to have a free end; a placement part on which a rolling body is to be placed, and which includes a first connection part connected to the first beam-type load cell, a second connection part connected to the second beam-type load cell, and a pair of walls, the placement part being disposed between the first beam-type load cell and the second beam-type load cell; and a restriction member (41, 42) which is detachably attached to at least one of the pair of walls of the placement part, and which is configured to restrict a posture of the rolling body on the placement part, wherein the free end of the first beam-type load cell and the free end of the second beam-type load cell face opposite directions to each other in an extending direction of the first beam-type load cell, and the first connection part of the placement part is connected to the first beam-type load cell on a side of the free end of the first beam-type load cell and the second connection part of the placement part is connected to the second beam-type load cell on a side of the free end of the second beam-type load cell. a first beam-type load cell which is supported on a first support base in a cantilever manner to have a free end; a second beam-type load cell which is disposed to face the first beam-type load cell and which is supported on a second support base in a cantilever manner to have a free end; a placement part on which a rolling body is to be placed, and which includes a first connection part connected to the first beam-type load cell, a second connection part connected to the second beam-type load cell, and a pair of walls, the placement part being disposed between the first beam-type load cell and the second beam-type load cell; and a restriction member (41, 42) which is detachably attached to at least one of the pair of walls of the placement part, and which is configured to restrict a posture of the rolling body on the placement part, wherein the free end of the first beam-type load cell and the free end of the second beam-type load cell face opposite directions to each other in an extending direction of the first beam-type load cell, and the first connection part of the placement part is connected to the first beam-type load cell on a side of the free end of the first beam-type load cell and the second connection part of the placement part is connected to the second beam-type load cell on a side of the free end of the second beam-type load cell.
A keyboard musical instrument, comprising: a key; a hammer configured to be driven by a depressing operation of the key; an actuator (50, 51) configured to drive at least one of the key and the hammer in a movement direction in which the at least one of the key and the hammer moves in a key depression stroke; a hammer detector configured to detect a hammer-motion related value that relates to a motion of the hammer; a trajectory generator configured to generate a target trajectory of the at least one of the key and the hammer based on automatic performance information that defines a motion target value of the at least one of the key and the hammer; a feedback-value generator configured to generate a feedback value based on the hammer-motion related value in automatic performance detected by the hammer detector; and a controller configured to servo-control the actuator based on the target trajectory generated by the trajectory generator and the feedback value generated by the feedback-value generator; characterized by a phase specifier configured to specify a current phase among a plurality of phases in a key depression-release stroke, based on the hammer-motion related value in the automatic performance detected by the hammer detector, wherein the feedback-value generator is configured to generate the feedback value based on the hammer-motion related value in the automatic performance detected by the hammer detector and the phase specified by the phase specifier. a key; a hammer configured to be driven by a depressing operation of the key; an actuator (50, 51) configured to drive at least one of the key and the hammer in a movement direction in which the at least one of the key and the hammer moves in a key depression stroke; a hammer detector configured to detect a hammer-motion related value that relates to a motion of the hammer; a trajectory generator configured to generate a target trajectory of the at least one of the key and the hammer based on automatic performance information that defines a motion target value of the at least one of the key and the hammer; a feedback-value generator configured to generate a feedback value based on the hammer-motion related value in automatic performance detected by the hammer detector; and a controller configured to servo-control the actuator based on the target trajectory generated by the trajectory generator and the feedback value generated by the feedback-value generator; characterized by a phase specifier configured to specify a current phase among a plurality of phases in a key depression-release stroke, based on the hammer-motion related value in the automatic performance detected by the hammer detector, wherein the feedback-value generator is configured to generate the feedback value based on the hammer-motion related value in the automatic performance detected by the hammer detector and the phase specified by the phase specifier.
A lithographic printing plate precursor for on-machine development comprising: an image-recording layer on an aluminum support, wherein the image-recording layer contains a polymerization initiator, an infrared absorber, a polymer particle, and a polymerizable compound, and the polymerizable compound has a) a molecular weight of 1,500 to 3,000 and b) a double bond equivalent of 200 or less, characterized in that the polymerizable compound has c) a CLog P of 5 or less. an image-recording layer on an aluminum support, wherein the image-recording layer contains a polymerization initiator, an infrared absorber, a polymer particle, and a polymerizable compound, and the polymerizable compound has a) a molecular weight of 1,500 to 3,000 and b) a double bond equivalent of 200 or less, characterized in that the polymerizable compound has c) a CLog P of 5 or less.
A method of constructing a wrappable protective sleeve for protecting an elongate member contained therein, comprising: forming a textile wall having opposite edges (16, 18) extending lengthwise along a longitudinal axis between opposite ends (22, 24, 122, 124) with the opposite edges (16, 18); and characterised by melting, applying and solidifying a material on said textile wall using an additive manufacturing process to form at least one reinforcement rib (26, 126, 226, 326, 426) that is fused and bonded on said textile wall, said at least one reinforcement rib (26, 126, 226, 326, 426) having an increased rigidity relative to said textile wall. forming a textile wall having opposite edges (16, 18) extending lengthwise along a longitudinal axis between opposite ends (22, 24, 122, 124) with the opposite edges (16, 18); and characterised by melting, applying and solidifying a material on said textile wall using an additive manufacturing process to form at least one reinforcement rib (26, 126, 226, 326, 426) that is fused and bonded on said textile wall, said at least one reinforcement rib (26, 126, 226, 326, 426) having an increased rigidity relative to said textile wall.
A phosphonate or phosphinate N-methanocarba derivative of AMP of formula a deuterium enriched isomer thereof, or a pharmaceutically acceptable salt thereof, wherein Q 1 is O or S; R 1 is hydrogen or N(R 6) 2; R 2 is hydrogen, C 2 -C 12 -alkynyl or halogen; R 3 is hydrogen; R 4 and R 5 are independently chosen as being hydroxyl or C 1 -C 12 -alkoxy; or alternatively, R 4 and R 5 form a 5- or 6-membered cyclic structure with the phosphorus atom where the cyclic structure contains at least two oxygen atoms and at least 2 or 3 carbon atoms; R 6 is independently chosen as being hydrogen or C 1 -C 12 -alkyl; and Y is a linking group linked to the phosphorus atom by a carbon atom chosen as being C 1 -C 6 alkylene or C 1 -C 6 alkenylene. Q 1 is O or S; R 1 is hydrogen or N(R 6) 2; R 2 is hydrogen, C 2 -C 12 -alkynyl or halogen; R 3 is hydrogen; R 4 and R 5 are independently chosen as being hydroxyl or C 1 -C 12 -alkoxy; or alternatively, R 4 and R 5 form a 5- or 6-membered cyclic structure with the phosphorus atom where the cyclic structure contains at least two oxygen atoms and at least 2 or 3 carbon atoms; R 6 is independently chosen as being hydrogen or C 1 -C 12 -alkyl; and Y is a linking group linked to the phosphorus atom by a carbon atom chosen as being C 1 -C 6 alkylene or C 1 -C 6 alkenylene.
An intake system, comprising: a plurality of branch pipes (27 - 30) which are arranged one next to the other and communicate at downstream ends thereof with a plurality of intake ports provided in an engine, respectively, each branch pipe extending from the downstream end thereof to an upstream end thereof in a curved manner; an intake chamber communicating with the upstream ends of the branch pipes (27 - 30); and an intake air introduction pipe having a downstream section, a downstream end thereof communicating with the intake chamber, and an upstream section which extends from an upstream end of the downstream section in the direction of arrangement of the branch pipes in a space defined between the branch pipes (27 - 30) and the engine, characterized in that the downstream section of the intake air introduction pipe extends along the branch pipes (27 - 30) between adjacent two of the branch pipes. a plurality of branch pipes (27 - 30) which are arranged one next to the other and communicate at downstream ends thereof with a plurality of intake ports provided in an engine, respectively, each branch pipe extending from the downstream end thereof to an upstream end thereof in a curved manner; an intake chamber communicating with the upstream ends of the branch pipes (27 - 30); and an intake air introduction pipe having a downstream section, a downstream end thereof communicating with the intake chamber, and an upstream section which extends from an upstream end of the downstream section in the direction of arrangement of the branch pipes in a space defined between the branch pipes (27 - 30) and the engine, characterized in that the downstream section of the intake air introduction pipe extends along the branch pipes (27 - 30) between adjacent two of the branch pipes.
Method of treating a fiber web, in which method the fiber web is sized in a sizer by indirect curtain sizing in a curtain sizer, in which the sizing agent is applied onto the fiber web by two sizing rolls (11,12) in a sizing nip, characterized in that the fiber web is sized with high solids content sizing agent having solids content of 10 - 60 %, preferably 20 - 40 %, and the sizing agent is applied onto the fiber web by two hard sizing rolls (11,12) in the sizing nip and in the sizing nip at substantially uniform pressure distribution and uniform speed in cross-direction of the fiber web, that after the sizing the fiber web is heat-treated in a heat-treatment zone of a heat-treatment device, that in the heat-treatment zone the fiber web is pressed by a pressure of 0,1 MPa - 30 MPa, advantageously of 0,1 - 5 MPa, and that in the heat-treatment zone the surface temperature is 100 - 250 °C.
A print cartridge, comprising: a memory device (100, 600) including data to reconstruct a color table for a printing device (206, 614), the data comprising; a compressed bitstream stored in the memory device (100, 600), wherein the compressed bitstream comprises: a plurality of quantized coefficients from a lossy compression of a plurality of difference nodes of a difference color table, the quantized coefficients being quantized using a selected step size (Δ), the quantized coefficients of the difference color table being useable with a reference table on the printing device (206, 614) to provide a reconstructed color table; wherein the value of each node in the difference color table reconstructed from the quantized coefficients is to be added to the value of a corresponding node of a reference table (210, 620) stored on the printing device (206, 614); and corrective information (104, 604) for a set of nodes to be modified corresponding to nodes of the reference table with residual values, wherein the corrective information (104, 604) includes residual values and node location information for the locations of the set of nodes to be modified with the residual values; wherein the quantized coefficients and the corrective information included in the bitstream are compressed; and the memory device (100, 600) includes the step size (Δ) as further information. a memory device (100, 600) including data to reconstruct a color table for a printing device (206, 614), the data comprising; a compressed bitstream stored in the memory device (100, 600), wherein the compressed bitstream comprises: a plurality of quantized coefficients from a lossy compression of a plurality of difference nodes of a difference color table, the quantized coefficients being quantized using a selected step size (Δ), the quantized coefficients of the difference color table being useable with a reference table on the printing device (206, 614) to provide a reconstructed color table; wherein the value of each node in the difference color table reconstructed from the quantized coefficients is to be added to the value of a corresponding node of a reference table (210, 620) stored on the printing device (206, 614); and corrective information (104, 604) for a set of nodes to be modified corresponding to nodes of the reference table with residual values, wherein the corrective information (104, 604) includes residual values and node location information for the locations of the set of nodes to be modified with the residual values; wherein the quantized coefficients and the corrective information included in the bitstream are compressed; and the memory device (100, 600) includes the step size (Δ) as further information.
Use of an anode and a source of DC power to protect steel in concrete construction which use comprises driving a current off the anode to the steel using the source of DC power to deliver a temporary impressed current treatment adapted to improve the environment at the steel to arrest steel corrosion and subsequently delivering from the same anode to the steel a low current preventative treatment adapted to inhibit steel corrosion initiation wherein the temporary impressed current treatment is a high current treatment relative to the low current preventative treatment and the anode comprises a sacrificial metal element that undergoes sacrificial metal dissolution as its main anodic reaction.
A six degree-of-freedom optical tracker system, comprising: a structure adapted to be disposed on a subject and moveable to a position and orientation; a plurality of light emitting diodes, LEDs, mounted on the structure, each LED coupled to receive a drive current and configured, upon receipt of the drive current, to emit light; an LED controller coupled to the LEDs and configured to supply the drive current to each of the LEDs in a manner that causes the LEDs to sequentially and individually emit light; a position sensing device spaced apart from each of the LEDs, the position sensing device having a field of view, FOV, and configured to receive the light emitted from each of the LEDs within the FOV and to supply position data for each LED; and a processor coupled to receive the position data supplied from the position sensing device and configured, upon receipt thereof, to: (i) determine the position and orientation of the structure relative to the position sensing device, (ii) determine if one or more of the LEDs is outside of the FOV of the position sensing device, and (iii) disable the one or more LEDs determined to be outside of the FOV of the position sensing device. a structure adapted to be disposed on a subject and moveable to a position and orientation; a plurality of light emitting diodes, LEDs, mounted on the structure, each LED coupled to receive a drive current and configured, upon receipt of the drive current, to emit light; an LED controller coupled to the LEDs and configured to supply the drive current to each of the LEDs in a manner that causes the LEDs to sequentially and individually emit light; a position sensing device spaced apart from each of the LEDs, the position sensing device having a field of view, FOV, and configured to receive the light emitted from each of the LEDs within the FOV and to supply position data for each LED; and a processor coupled to receive the position data supplied from the position sensing device and configured, upon receipt thereof, to: (i) determine the position and orientation of the structure relative to the position sensing device, (ii) determine if one or more of the LEDs is outside of the FOV of the position sensing device, and (iii) disable the one or more LEDs determined to be outside of the FOV of the position sensing device. (i) determine the position and orientation of the structure relative to the position sensing device, (ii) determine if one or more of the LEDs is outside of the FOV of the position sensing device, and (iii) disable the one or more LEDs determined to be outside of the FOV of the position sensing device.
Facade covering gabion for covering a wall, consisting of a gabion basket having a front wall grid, a back wall grid, two side wall grids and a bottom wall grid, and optionally a top wall grid, characterized by a combined hanging and spacing element in the form of a grid part, placed on the back wall grid on the outside and attached thereto, the upper region of the element being bent away from the gabion basket by more than 90° to form a hanging ledge, and the lower region of the element being also bent away from the gabion basket to form a spacer ledge.
An elevator door lock safety device (300; 400; 500; 600; 700; 900) comprising: a base; a first expanding extension member (410a; 510a; 910a) extending from the base, the first expanding extension member (410a; 510a; 910a) having a first exterior surface and a first interior surface; a second expanding extension member (410b; 510b; 910b) extending from the base and opposing the first expanding extension member (410a; 510a; 910a), the second expanding extension member (410b; 510b; 910b) having a second exterior surface and a second interior surface, wherein a separation distance (412; 512) is defined between the first and second interior surfaces (416a; 416b); an actuator aperture (420; 920) formed within the first expanding extension member (410a; 510a; 910a) and extending through the first expanding extension member (410a; 510a; 910a) from the first exterior surface to the first interior surface; and an actuation device (406; 906) passing through the actuator aperture (420; 920), wherein actuation of the actuation device (406; 906) actuates the elevator door lock safety device (300; 400; 500; 600; 700; 900) from a first state to a second state, wherein the separation distance (412; 512) is greater in the second state than in the first state. a base; a first expanding extension member (410a; 510a; 910a) extending from the base, the first expanding extension member (410a; 510a; 910a) having a first exterior surface and a first interior surface; a second expanding extension member (410b; 510b; 910b) extending from the base and opposing the first expanding extension member (410a; 510a; 910a), the second expanding extension member (410b; 510b; 910b) having a second exterior surface and a second interior surface, wherein a separation distance (412; 512) is defined between the first and second interior surfaces (416a; 416b); an actuator aperture (420; 920) formed within the first expanding extension member (410a; 510a; 910a) and extending through the first expanding extension member (410a; 510a; 910a) from the first exterior surface to the first interior surface; and an actuation device (406; 906) passing through the actuator aperture (420; 920), wherein actuation of the actuation device (406; 906) actuates the elevator door lock safety device (300; 400; 500; 600; 700; 900) from a first state to a second state, wherein the separation distance (412; 512) is greater in the second state than in the first state.
Expansion valve for controlling a fluid stream, having a valve-means housing and at least one valve means, which is movably arranged in the valve-means housing, and an actuator housing, in which the electric drive of the expansion valve is arranged, wherein the valve-means housing is formed at least partially from a metal, in particular from aluminium or an aluminium alloy, or at least partially from a plastic body with a diffusion-inhibiting barrier layer containing metal, and wherein the actuator housing is formed at least partially from plastic, and wherein the actuator housing is fastened to the valve-means housing by means of at least one connecting element, characterized in that the connecting element is designed at least partially as a latching element and/or clip element.
A solar cell comprising a light absorbing silicon layer, having a first surface and a second surface opposite to said first surface, wherein it further comprises a heterogeneous layer arranged on said first surface and/or on said second surface, having a front surface and a back surface opposite to each other, said back surface being oriented to the side of said first surface, the heterogeneous layer comprising an electrically low-conducting matrix made of silicon oxide, said matrix having a refractive index lower than 3, the heterogeneous layer further comprising electrically conducting inclusions in said matrix, characterized in that said inclusions are silicon filaments extending through said heterogenous layer, at least a portion of said inclusions being electrically interconnected such that they form a charge carrier transport path from said back surface to said front surface, so that said back surface is electrically connected to said front surface.
A chemical heat accumulator being a compact of a mixture in which heat accumulating particles that become exothermic or endothermic due to storage or release of ammonia as a working fluid are mixed with a binder that holds the heat accumulating particles, wherein the heat accumulating particles are SrCl 2, the binder is carbon fiber having higher thermal conductivity than that of the heat-accumulating particles, the carbon fiber is of 5 to 45 mass% when whole of the mixture is of 100 mass%, and the chemical heat accumulator consists of the heat accumulating particles, the binder, and inevitable impurities.