mhurhangee/ep-ind-claims huggingface dataset:
A photoelectric absolute encoder comprising: a scale having a plurality of tracks with different pitch patterns; and a detector having a light source and light receiving elements including a plurality of light receiving element arrays corresponding to the plurality of tracks, wherein a light receiving element array is additionally arranged at a position in the detector corresponding to a boundary between the track having a pattern with a wide pitch and the track having a pattern with a narrow pitch adjacent to each other in the scale, wherein the added light receiving element array includes four photodiodes for four phases arranged within one pitch of the scale and a pitch of the added light receiving element array corresponds to the wide pitch in the scale and displacement of the detector relative to the scale in a lateral direction is detected from a signal amplitude (Iamp) of the added light receiving element array, wherein the signal amplitude (Iamp) is given by Iamp = √ Ia − Iab 2 + Ib − Ibb 2, with Ia, Iab, Ib and Ibb being the photovoltaic currents of the four photodiodes. a scale having a plurality of tracks with different pitch patterns; and a detector having a light source and light receiving elements including a plurality of light receiving element arrays corresponding to the plurality of tracks, wherein a light receiving element array is additionally arranged at a position in the detector corresponding to a boundary between the track having a pattern with a wide pitch and the track having a pattern with a narrow pitch adjacent to each other in the scale, wherein the added light receiving element array includes four photodiodes for four phases arranged within one pitch of the scale and a pitch of the added light receiving element array corresponds to the wide pitch in the scale and displacement of the detector relative to the scale in a lateral direction is detected from a signal amplitude (Iamp) of the added light receiving element array, wherein the signal amplitude (Iamp) is given by Iamp = √ Ia − Iab 2 + Ib − Ibb 2, with Ia, Iab, Ib and Ibb being the photovoltaic currents of the four photodiodes.
Heat-treated liquid nutritional composition comprising 8 - 20 g of protein per 100 ml of the composition, wherein at least 50 wt.% of the protein is micellar casein and at least 10 wt.% of the protein is hydrolysed whey protein, wherein the hydrolysed whey protein has a degree of hydrolysation in the range 1-25%, the degree of hydrolysation being determined by the trinitrobenzenesulphonic acid (TNBS) procedure and being corrected for the natural degree of hydrolysation of the whey protein that was used for the preparation of the hydrolysed whey protein.
A method of transmitting an information signal in a communications system having a base station and a remote station, comprising the steps of: (a) receiving an information bit stream by the base station; (b) determining a power level required to transmit the information signal from the base station to the remote station for a specified bit rate error; (c) determining whether the power level exceeds a first threshold; (d) if the power level exceeds the first threshold: encoding the information bit stream at a lower code rate; transmitting a first portion of the lower-rate encoded information bit stream by the base station to the remote station over a first transmission link; and transmitting a second portion of the lower-rate encoded information bit stream by the base station to the remote station over a second transmission link; (e) else if the power level does not exceed the first threshold: encoding the information bit stream at a higher code rate; and transmitting the higher-rate encoded information bit stream by the base station to the remote station over a single transmission link. (a) receiving an information bit stream by the base station; (b) determining a power level required to transmit the information signal from the base station to the remote station for a specified bit rate error; (c) determining whether the power level exceeds a first threshold; (d) if the power level exceeds the first threshold: encoding the information bit stream at a lower code rate; transmitting a first portion of the lower-rate encoded information bit stream by the base station to the remote station over a first transmission link; and transmitting a second portion of the lower-rate encoded information bit stream by the base station to the remote station over a second transmission link; encoding the information bit stream at a lower code rate; transmitting a first portion of the lower-rate encoded information bit stream by the base station to the remote station over a first transmission link; and transmitting a second portion of the lower-rate encoded information bit stream by the base station to the remote station over a second transmission link; (e) else if the power level does not exceed the first threshold: encoding the information bit stream at a higher code rate; and transmitting the higher-rate encoded information bit stream by the base station to the remote station over a single transmission link. encoding the information bit stream at a higher code rate; and transmitting the higher-rate encoded information bit stream by the base station to the remote station over a single transmission link.
An article of footwear, comprising: a sole structure including a plurality of sensory node elements and a carrier member (200, 290) for the plurality of sensory node elements; the plurality of sensory node elements (240, 300) including a first sensory node element (240, 300) and a second sensory node element (240, 300), the first sensory node element (240, 300) having a first bottom end configured to contact a ground surface and a first top end disposed opposite the first bottom end and the second sensory node element (240, 300) having a second bottom end configured to contact the ground surface and a second top end disposed opposite the second bottom end; the carrier member (200, 290) including a plurality of recesses, wherein the plurality of recesses includes a first recess corresponding with the first top end of the first sensory node element (240, 300) and wherein the plurality of recesses includes a second recess corresponding with the second top end of the second sensory node element (240, 300); wherein the first top end of the first sensory node element (240, 300) has the smaller diameter than the first bottom end and wherein the second top end of the second sensory node element (240, 300) has the smaller diameter than the second bottom end, such that the diameter of the sensory node elements (240, 300) tapers from bottom end toward the top end an inner foot receiving layer; and wherein the carrier member (200, 290) is located between the inner foot receiving layer and the plurality of sensory node elements (240, 300). a sole structure including a plurality of sensory node elements and a carrier member (200, 290) for the plurality of sensory node elements; the plurality of sensory node elements (240, 300) including a first sensory node element (240, 300) and a second sensory node element (240, 300), the first sensory node element (240, 300) having a first bottom end configured to contact a ground surface and a first top end disposed opposite the first bottom end and the second sensory node element (240, 300) having a second bottom end configured to contact the ground surface and a second top end disposed opposite the second bottom end; the carrier member (200, 290) including a plurality of recesses, wherein the plurality of recesses includes a first recess corresponding with the first top end of the first sensory node element (240, 300) and wherein the plurality of recesses includes a second recess corresponding with the second top end of the second sensory node element (240, 300); wherein the first top end of the first sensory node element (240, 300) has the smaller diameter than the first bottom end and wherein the second top end of the second sensory node element (240, 300) has the smaller diameter than the second bottom end, such that the diameter of the sensory node elements (240, 300) tapers from bottom end toward the top end an inner foot receiving layer; and wherein the carrier member (200, 290) is located between the inner foot receiving layer and the plurality of sensory node elements (240, 300).
A device for transporting tubular pieces, comprising a first and at least one second transfer element (4, 4') for transferring the tubular pieces, wherein the transfer of the tubular pieces comprises at least one transfer at a transfer position and a subsequent delivery of a tubular piece at a delivery position, characterized in that the transfer elements (4, 4') within the device can be moved independently of one another along a predeterminable trajectory, and that the transfer elements (4, 4') are arranged and/or movably arranged within the device in such a way that the acceleration exerted on the tubular pieces can be minimized when the tubular pieces are delivered and/or during a subsequent delivery of the tubular pieces.
A light emitting device comprising: a covering member including a first light-reflective member having a through-hole and a light-transmissive resin disposed in the through-hole; a light-emitting element arranged to face the light-transmissive resin; and a second light-reflective member arranged to face the first light-reflective member around the light-emitting element, the second light-reflective member covering a lateral surface of the light-emitting element, wherein the light-transmissive resin contains a wavelength-conversion material distributed predominantly on a side of a lower surface of the light-transmissive resin facing the light-emitting element, or predominantly on a side of an upper surface of the light-transmissive resin, the side of the upper surface apart from the light-emitting element, characterized in that a sidewall of the through-hole has a protrusion, and in that a distance between the upper surface of the light-transmissive resin and a tip of the protrusion is shorter than a distance between the lower surface of the light-transmissive resin and the tip of the protrusion. a covering member including a first light-reflective member having a through-hole and a light-transmissive resin disposed in the through-hole; a light-emitting element arranged to face the light-transmissive resin; and a second light-reflective member arranged to face the first light-reflective member around the light-emitting element, the second light-reflective member covering a lateral surface of the light-emitting element, wherein the light-transmissive resin contains a wavelength-conversion material distributed predominantly on a side of a lower surface of the light-transmissive resin facing the light-emitting element, or predominantly on a side of an upper surface of the light-transmissive resin, the side of the upper surface apart from the light-emitting element, characterized in that a sidewall of the through-hole has a protrusion, and in that a distance between the upper surface of the light-transmissive resin and a tip of the protrusion is shorter than a distance between the lower surface of the light-transmissive resin and the tip of the protrusion.
A base station, which performs radio communications with a communication terminal within a cell center area, the cell center area having a main priority radio resource preferentially allocated to the cell center area and being adjacent to at least one adjacent cell area having at least one adjacent priority radio resource (f2, f3) preferentially allocated to the at least one adjacent cell area, wherein: the base station is configured to increase usable radio resources when the communication terminal is placed at a cell boundary between the cell center area and the at least one adjacent cell area, and the base station comprising: a priority band setting unit configured to set both the main priority radio resource and the at least one adjacent priority radio resource (f2, f3); and a usable band setting unit configured to acquire each communication quality related to both the cell center area and the at least one adjacent cell area to calculate a communication quality difference of the communication terminal between the communication quality related to the cell center area and the communication quality related to the at least one adjacent cell area, and set, as the usable radio resources for the communication terminal, the main priority radio resource together with the at least one adjacent priority radio resource (f2, f3) when the communication quality difference is larger than a threshold value. a priority band setting unit configured to set both the main priority radio resource and the at least one adjacent priority radio resource (f2, f3); and a usable band setting unit configured to acquire each communication quality related to both the cell center area and the at least one adjacent cell area to calculate a communication quality difference of the communication terminal between the communication quality related to the cell center area and the communication quality related to the at least one adjacent cell area, and set, as the usable radio resources for the communication terminal, the main priority radio resource together with the at least one adjacent priority radio resource (f2, f3) when the communication quality difference is larger than a threshold value.
A vehicle with a rotary control box used for an aerial work platform, comprising: a vehicle frame, a driving system disposed on the vehicle frame, and a control box, the control box being disposed at a lateral side of the vehicle frame in a rotary manner, the control box being electrically connected with the driving system, the vehicle frame having a base, a casing being disposed at a lateral side of the base, a turning opening being defined at a lateral side of the casing for turning the control box into and out of the casing, the control box being hinged to a lateral side of the base of the vehicle frame; characterized in that an edge of the control box is hinged to an upper edge of the turning opening.
A method for manufacturing a high-density tableware article, comprising: providing a polyester resin composition including 45 to 78% by weight of a blend resin and 20 to 50% by weight of an inorganic filler, wherein the blend resin includes a polyethylene terephthalate resin and a polybutylene terephthalate resin which are present in a content ratio by weight from 1:0.86 to 1:4.8, and the inorganic filler includes barium sulfate and calcium silicate in a content ratio by weight from 1:0.28 to 1:1.67; granulating the polyester resin composition to produce plastic granules; and molding the plastic granules into a tableware article. providing a polyester resin composition including 45 to 78% by weight of a blend resin and 20 to 50% by weight of an inorganic filler, wherein the blend resin includes a polyethylene terephthalate resin and a polybutylene terephthalate resin which are present in a content ratio by weight from 1:0.86 to 1:4.8, and the inorganic filler includes barium sulfate and calcium silicate in a content ratio by weight from 1:0.28 to 1:1.67; granulating the polyester resin composition to produce plastic granules; and molding the plastic granules into a tableware article.
A block for a use with a line, the block comprising: a sheave defining a central opening; a pair of side plates positioned on either side of the sheave, each side plate defining an opening corresponding to the central opening of the sheave; a post; one of the side plates removably mounted to the other side plate; the side plates configured to cooperate to releasably retain the post within the opening; the opening sized to receive the post and a mounting line loop; the mounting line loop including opposite end loops extending through the opening from opposite sides with each end loop positioned about the post; wherein within the openings of each of the side plates a post recess is defined to receive opposite ends of the post, the post recesses of the side plates being configured to permit insertion of the post within the post recesses when the side plates are separate from each other and cooperating to securely hold the post when the side plates are fastened to each other. a sheave defining a central opening; a pair of side plates positioned on either side of the sheave, each side plate defining an opening corresponding to the central opening of the sheave; a post; one of the side plates removably mounted to the other side plate; the side plates configured to cooperate to releasably retain the post within the opening; the opening sized to receive the post and a mounting line loop; the mounting line loop including opposite end loops extending through the opening from opposite sides with each end loop positioned about the post; wherein within the openings of each of the side plates a post recess is defined to receive opposite ends of the post, the post recesses of the side plates being configured to permit insertion of the post within the post recesses when the side plates are separate from each other and cooperating to securely hold the post when the side plates are fastened to each other.
A method comprising: associating, in a computer system, a first virtual controller (102, 202) with a first physical controller; allocating a first function to the first virtual controller (102, 202), the allocation providing for performance of the first function using the first physical controller; associating a second virtual controller (106, 200) in the computer system with a second physical controller, wherein the first virtual controller (102, 202) and the second virtual controller (106, 200) are defined in a virtual space generated by the computer system; allocating a second function to the second virtual controller (106, 200); and detecting a predefined gesture performed using motions of the first physical controller, characterised in that in response to detecting the gesture, the first function is de-allocated from the first virtual controller (102, 202), the first function is allocated to the second virtual controller (106, 200), and the second function is de-allocated from the second virtual controller (106, 200), and the second function is allocated to the first virtual controller (102, 202). associating, in a computer system, a first virtual controller (102, 202) with a first physical controller; allocating a first function to the first virtual controller (102, 202), the allocation providing for performance of the first function using the first physical controller; associating a second virtual controller (106, 200) in the computer system with a second physical controller, wherein the first virtual controller (102, 202) and the second virtual controller (106, 200) are defined in a virtual space generated by the computer system; allocating a second function to the second virtual controller (106, 200); and detecting a predefined gesture performed using motions of the first physical controller, characterised in that in response to detecting the gesture, the first function is de-allocated from the first virtual controller (102, 202), the first function is allocated to the second virtual controller (106, 200), and the second function is de-allocated from the second virtual controller (106, 200), and the second function is allocated to the first virtual controller (102, 202).
A voice pickup method implemented by an intelligent rearview mirror, comprising: acquiring (S101, S201, S301) an image of an interior of a vehicle; determining (S102, S202, S302) a position of a person in the vehicle with the image of the interior of the vehicle; and adjusting (S103, S303) a beamforming direction of a microphone array located in the intelligent rearview mirror according to the position of the person in the vehicle, wherein the adjusting (S103, S303) the beamforming direction of the microphone array according to the position of the person in the vehicle comprises: receiving a voice signal of the person in the vehicle, and acquiring sound-source positioning information corresponding to the voice signal with a sound-source positioning algorithm preset in the microphone array; and filtering out wrong sound-source positioning information in the sound-source positioning information according to the position of the person in the vehicle, and adjusting the beamforming direction of the microphone array according to the filtered sound-source positioning information. acquiring (S101, S201, S301) an image of an interior of a vehicle; determining (S102, S202, S302) a position of a person in the vehicle with the image of the interior of the vehicle; and adjusting (S103, S303) a beamforming direction of a microphone array located in the intelligent rearview mirror according to the position of the person in the vehicle, wherein the adjusting (S103, S303) the beamforming direction of the microphone array according to the position of the person in the vehicle comprises: receiving a voice signal of the person in the vehicle, and acquiring sound-source positioning information corresponding to the voice signal with a sound-source positioning algorithm preset in the microphone array; and filtering out wrong sound-source positioning information in the sound-source positioning information according to the position of the person in the vehicle, and adjusting the beamforming direction of the microphone array according to the filtered sound-source positioning information. receiving a voice signal of the person in the vehicle, and acquiring sound-source positioning information corresponding to the voice signal with a sound-source positioning algorithm preset in the microphone array; and filtering out wrong sound-source positioning information in the sound-source positioning information according to the position of the person in the vehicle, and adjusting the beamforming direction of the microphone array according to the filtered sound-source positioning information.
A cable-type secondary battery, comprising: a winding core; an inner electrode support wound on the outside of the winding core in the form of a spaced spring so that the winding core may be exposed partially; a sheet-type first inner electrode formed on the outside of the exposed winding core by spiral winding; a sheet-type first separation layer formed on the outside of the first inner electrode by spiral winding; a sheet-type second inner electrode formed on the outside of the first separation layer by spiral winding; a second separation layer formed on the outside of the second inner electrode by spiral winding; and an outer electrode formed on the outside of the second separation layer by spiral winding, wherein the first inner electrode, the first separation layer, the second inner electrode, the second separation layer and the outer electrode are wound on the outside of the winding core exposed between the spaced spring shapes of the inner electrode support.