mhurhangee/ep-ind-claims huggingface dataset:
A method for determining whether data is punctured by another type of data configured to operate in 3GPP system, comprising: receiving, by a terminal, a downlink control channel transmitted by a base station to schedule retransmission; and receiving, by the terminal, a data packet; determining, by the terminal, whether there is punctured data among earlier N received transmissions of the data packet scheduled by the downlink control channel, according to the downlink control channel, wherein N is an integer more than or equal to 1; wherein the determining, by the terminal, whether there is punctured data among the earlier N received transmissions of the data packet scheduled by the downlink control channel, according to the downlink control channel is as following: the terminal receives a shared channel scheduled by the downlink control channel, characterized in that, the shared channel comprises an indicating field, and the indicating field indicates whether there are punctured data among the earlier N received transmissions of the data packet scheduled by the downlink control channel, and wherein the shared channel carries the scheduled retransmission of the data packet and the indicating field is transmitted over a resource corresponding to fixed Code Block Group, CBG, of CBG's carried in the shared channel, through puncturing or rate matching. receiving, by a terminal, a downlink control channel transmitted by a base station to schedule retransmission; and receiving, by the terminal, a data packet; determining, by the terminal, whether there is punctured data among earlier N received transmissions of the data packet scheduled by the downlink control channel, according to the downlink control channel, wherein N is an integer more than or equal to 1; wherein the determining, by the terminal, whether there is punctured data among the earlier N received transmissions of the data packet scheduled by the downlink control channel, according to the downlink control channel is as following: the terminal receives a shared channel scheduled by the downlink control channel, characterized in that, the shared channel comprises an indicating field, and the indicating field indicates whether there are punctured data among the earlier N received transmissions of the data packet scheduled by the downlink control channel, and wherein the shared channel carries the scheduled retransmission of the data packet and the indicating field is transmitted over a resource corresponding to fixed Code Block Group, CBG, of CBG's carried in the shared channel, through puncturing or rate matching.
A solar cell comprising: a semiconductor substrate having a first conductivity type; a first conductivity type layer having a conductivity type equal to the first conductivity type and a second conductivity type layer having a second conductivity type opposite to the first conductivity type, which are located on a first main surface of the substrate; a first collecting electrode on the first conductivity type layer located on the first main surface; and a second collecting electrode on the second conductivity type layer located on the first main surface, wherein a second conductivity type layer having the second conductivity type is formed on only a part of a side surface of the semiconductor substrate and continuously from the second conductivity type layer located on the first main surface, such that the second conductivity type layer does not reach a second main surface of the substrate which is a light receiving surface a semiconductor substrate having a first conductivity type; a first conductivity type layer having a conductivity type equal to the first conductivity type and a second conductivity type layer having a second conductivity type opposite to the first conductivity type, which are located on a first main surface of the substrate; a first collecting electrode on the first conductivity type layer located on the first main surface; and a second collecting electrode on the second conductivity type layer located on the first main surface, wherein a second conductivity type layer having the second conductivity type is formed on only a part of a side surface of the semiconductor substrate and continuously from the second conductivity type layer located on the first main surface, such that the second conductivity type layer does not reach a second main surface of the substrate which is a light receiving surface
Insert holder for a machine tool turning tool including an insert holder body the head of which is intended to receive a cutting insert, at least two measurement cavities (4, 5) being formed in the insert holder body at the head end, said measurement cavities (4, 5) centered on the neutral fiber, each of the measurement cavities (4, 5) having a respective flat bottom (41, 51) parallel to the direction of the component of the tangential cutting force of the insert holder to be measured and parallel to the longitudinal direction (X; Z) of the insert holder body, the insert holder further including at least one first strain gage (71, 72, 73, 74), characterized in that said measurement cavities (4, 5) are symmetrically arranged relative to the neutral fiber of the insert holder body, the at least one first strain gage (71, 72, 73, 74) being configured to measure the deformation of the flat bottom (41, 51) of at least one of the two measurement cavities (4, 5).
A motor vehicle body comprising: - at least a front pillar equipped with a front pillar reinforcement having an external face and an internal face, turned respectively toward the exterior and toward the interior of the body, a rear zone turned, at least partially, toward the front of a frame of a side door, and - at least a front reinforcement having a front end connected to a front zone of the body, the front pillar reinforcement having, at least partially, a general U-shape or Ω-shape, having a base turned to the external side, a first wing extending from a rear edge of the base and forming, at least partially, the rear zone of said front pillar reinforcement, and a second wing extending from a front edge of the base and forming, at least partially, a front zone of said front pillar reinforcement, characterized in that the front reinforcement has a rear end directly welded on the rear zone of the front pillar reinforcement, to the side of the internal face of the front pillar reinforcement. - at least a front pillar equipped with a front pillar reinforcement having an external face and an internal face, turned respectively toward the exterior and toward the interior of the body, a rear zone turned, at least partially, toward the front of a frame of a side door, and - at least a front reinforcement having a front end connected to a front zone of the body,
A porous solid acid catalyst for producing light olefins from a feed comprising full range naphthas, which is a product obtained by a pillaring reaction between layers of a layered compound within a raw material mixture and by a solid state reaction through heat treatment of the raw material mixture comprising HZSM-5 and the pillared layered compound, the solid state reaction allowing a reaction between HZSM-5 and the pillared layered compound and resulting in that the porous solid acid catalyst has a crystalline structure represented by an XRD pattern in the following Table 1 which differs from that of HZSM-5 within the raw material mixture, wherein said raw material mixture comprises, when calculated on the basis of the oxide form, 42.0-60.0 wt% HZSM-5 having Si/Al molar ratio of 15-300, 12.0-38.0 wt% layered compound, 1.0-20.0 wt% Al 2 O 3 as a pillaring agent, 1.0-4.0 wt% P 2 O 5, 10.0-15.0 wt% SiO 2, and 0.5-2.5 wt% B 2 O 3, and wherein said layered compound is Kaolin, bentonite, saponite, or a mixture thereof. [Table 1] 2θ Relative intensity 2θ Relative intensity 7.899 81.4 25.60 15.3 8.760 48.1 25.82 18.4 14.76 15.3 26.60 22.2 19.92 15.2 26.86 20.8 20.36 21.2 29.90 22.5 23.06 100 45.00 17.5 23.88 59.7 45.48 17.4 24.36 24.5
A lighting system comprising a plurality of lighting devices interconnected with one another in a communication network, preferably a wireless communication network; each lighting device comprising at least one light source, a control device that controls the light source and is activated by a user and/or by an activation device connected to the network, for example a sensor, and a communication device associated with the control device and that connects the lighting device to the network and thus to all the other lighting devices of the lighting system; wherein the lighting devices define respective equivalent nodes of the network and are configured so that any one of said lighting devices of the lighting system selectively acts as a master, if an initial control input is received directly by that lighting device; and as a slave, if the initial control input is received by another lighting device; and wherein the lighting devices are configured so that instructions given to any one of the lighting devices, acting momentarily as a master, via the respective control device are transmitted to all the other lighting devices, which are accordingly controlled so as the system is activated from any node defined by a respective lighting device.
A material set for an acoustic matching layer, comprising: a base resin made of a resin composition including an epoxy resin and metal particles; and separately a curing agent for the epoxy resin, the metal particles having a monodispersity of 40% to 80%, wherein the monodispersity is calculated by equation: monodispersity (%) = (standard deviation of particle sizes of metal particles/average particle size of metal particles) × 100. a base resin made of a resin composition including an epoxy resin and metal particles; and separately a curing agent for the epoxy resin, the metal particles having a monodispersity of 40% to 80%, wherein the monodispersity is calculated by equation: monodispersity (%) = (standard deviation of particle sizes of metal particles/average particle size of metal particles) × 100.
A pneumatic floor spring, comprising a fixed plate, and a housing that is fixedly arranged on the fixed plate, and a bottom cover is arranged on the lower end of the housing; a convex rotor is arranged inside the housing; a rotating shaft is fixedly arranged on the end of the convex rotor; the lower end of the convex rotor is mated with a guide base; the guide base is vertically provided with guide grooves; the guide grooves are mated with the interior of the housing, the interior of the housing protrudes to form a guide bar that is mated with the guide grooves, and the guide base being configured to provide a vertical movement; a piston is arranged on the bottom of the guide base; a supporting plate is arranged inside the housing and the piston penetrates through the supporting plate; the piston and the supporting plate are provided with a sealing ring; the supporting plate, the housing and the bottom cover together form a closed gas chamber; the gas chamber is filled with compressed nitrogen; characterized in that the housing is fixedly arranged on the bottom surface of the fixed plate, and the end of the convex rotor penetrates through the fixed plate; and wherein the guide base is provided with cross-shaped rounded guide base grooves, and rounded lug bosses are arranged between the guide base grooves; the convex rotor is provided with a straight rounded projection mated with the rounded guide base groove, and rotor grooves mated with the lug bosses are arranged around the projection.
A device comprising: a light source; means for modulating the light source over a range of pump modulation frequencies to provide a modulated pump light source; means for irradiating a target specimen with light from the pump light source; means for generating a probe light speckle pattern from the target specimen; means for detecting changes in at least one of position or intensity of one or more speckle lobes of the speckle pattern; and means for correlating the changes in at least one of position or intensity with frequency of the pump modulation over the range of pump modulation frequencies. a light source; means for modulating the light source over a range of pump modulation frequencies to provide a modulated pump light source; means for irradiating a target specimen with light from the pump light source; means for generating a probe light speckle pattern from the target specimen; means for detecting changes in at least one of position or intensity of one or more speckle lobes of the speckle pattern; and means for correlating the changes in at least one of position or intensity with frequency of the pump modulation over the range of pump modulation frequencies.
A method for making an absorbent material comprising the steps of: providing a fibrous material including a plurality of individual fibers forming a fiber matrix; depositing a plurality of absorbent fibers on a top surface of the fibrous material; and impregnating the plurality of absorbent fibers into the fiber matrix by means of a needlepunch process, wherein each of the plurality of individual fibers has a fiber diameter that is at least 1 μm greater than a fiber diameter of each of the absorbent fibers. providing a fibrous material including a plurality of individual fibers forming a fiber matrix; depositing a plurality of absorbent fibers on a top surface of the fibrous material; and impregnating the plurality of absorbent fibers into the fiber matrix by means of a needlepunch process, wherein each of the plurality of individual fibers has a fiber diameter that is at least 1 μm greater than a fiber diameter of each of the absorbent fibers.
A system for 3D-particle imaging velocimetry of particles in a fluid, the system comprising: - a substrate holder for holding a substrate comprising a channel or reservoir for containing the fluid in the substrate, - a radiation source for providing irradiation to the fluid in the substrate, - a radiation detection unit including a high-speed camera for detecting radiation from particles in the fluid in the substrate, - at least one of the radiation source and the radiation detection unit being configured so as to obtain detection in one or more distinct detection sheets in the substrate, wherein detection includes simultaneous detection of two orthogonal components of the position in the fluid where particles traverse one or more distinct detection sheets, the two orthogonal components having directions parallel to the one or more detection sheets, - wherein the system further comprises an actuator configured for imparting an oscillating mechanical movement of the substrate holder with respect to the radiation detection unit and the radiation source, the oscillating mechanical movement comprising a movement component in a direction perpendicular to the plane wherein the one or more detection sheets are extending, allowing detection of the three components of the position of particles in the fluid. - a substrate holder for holding a substrate comprising a channel or reservoir for containing the fluid in the substrate, - a radiation source for providing irradiation to the fluid in the substrate, - a radiation detection unit including a high-speed camera for detecting radiation from particles in the fluid in the substrate, - at least one of the radiation source and the radiation detection unit being configured so as to obtain detection in one or more distinct detection sheets in the substrate, wherein detection includes simultaneous detection of two orthogonal components of the position in the fluid where particles traverse one or more distinct detection sheets, the two orthogonal components having directions parallel to the one or more detection sheets, - wherein the system further comprises an actuator configured for imparting an oscillating mechanical movement of the substrate holder with respect to the radiation detection unit and the radiation source, the oscillating mechanical movement comprising a movement component in a direction perpendicular to the plane wherein the one or more detection sheets are extending, allowing detection of the three components of the position of particles in the fluid.
A container for the treatment and/or storage of goods sold in bulk, including a fluid injection and/or extraction valve (3a, 3b), wherein said fluid injection and/or extraction valve includes a fluid inlet and/or outlet duct provided with a flowrate regulator element and a valve seating for said fluid inlet and/or outlet duct, characterized in that it comprises; - at least one internal bag made of flexible material and a protective wrapping for said internal bag, - wherein said valve seating comprises a surface adapted for being attached to a portion of the internal bag made of flexible material, wherein a portion of said internal bag made of flexible material being affixed to the valve seating of the inlet duct of said valve (3a, 3b), - wherein said fluid injection and/or extraction valve (3a, 3b) further comprises a valve cover for covering the valve seating, said valve cover being provided with an access hole for accessing said fluid inlet and/or outlet duct and said valve cover including securing means (13, 14, 30) for securing the protective wrapping of the internal bag on said valve seating, - wherein a portion of the protective wrapping for said internal bag being clamped between the valve seating and the valve cover protecting said valve seating. - at least one internal bag made of flexible material and a protective wrapping for said internal bag, - wherein said valve seating comprises a surface adapted for being attached to a portion of the internal bag made of flexible material, wherein a portion of said internal bag made of flexible material being affixed to the valve seating of the inlet duct of said valve (3a, 3b), - wherein said fluid injection and/or extraction valve (3a, 3b) further comprises a valve cover for covering the valve seating, said valve cover being provided with an access hole for accessing said fluid inlet and/or outlet duct and said valve cover including securing means (13, 14, 30) for securing the protective wrapping of the internal bag on said valve seating, - wherein a portion of the protective wrapping for said internal bag being clamped between the valve seating and the valve cover protecting said valve seating.
A vehicular door structure comprising: a door body that is provided with a drainage hole (12H1, 12H2, 12H3) at a lower edge portion thereof; a weather strip body that is arranged along the lower edge portion, that has a hollow interior, and that also has a communication hole (22A, 22B, 22C) through which the interior and the drainage hole communicate with each other; characterized in that it further comprises partition walls (24A, 24B, 24C, 24D, 24E, 24F) that are provided at a plurality of locations from an end portion of the weather strip body to the communication hole, and that partition the interior, wherein the partition walls are partially provided with drainage portions (26A, 26B, 26C, 26D, 26E, 26F) that penetrate the partition walls to enable drainage. a door body that is provided with a drainage hole (12H1, 12H2, 12H3) at a lower edge portion thereof; a weather strip body that is arranged along the lower edge portion, that has a hollow interior, and that also has a communication hole (22A, 22B, 22C) through which the interior and the drainage hole communicate with each other; characterized in that it further comprises partition walls (24A, 24B, 24C, 24D, 24E, 24F) that are provided at a plurality of locations from an end portion of the weather strip body to the communication hole, and that partition the interior, wherein the partition walls are partially provided with drainage portions (26A, 26B, 26C, 26D, 26E, 26F) that penetrate the partition walls to enable drainage.
An electrode capacitor assembly comprising: (a) at least two capacitor electrodes having a surface area for electrostatic adsorption and desorption of ions and comprising a pore structure such that each said electrode is a porous electrode having a pore volume; (b) a flow channel for passage of an ion containing fluid, said flow channel in ionic communication with said two electrodes; and (c) at least one ionic group held within the pore volume of each said porous electrode, whereby a first said porous electrode having a first pore volume is an anion-permeable electrode holding cationic groups within said first pore volume and excluding cationic co-ions from said first electrode, and whereby a second porous electrode having a second pore volume is a cation-permeable electrode holding anionic groups within said second pore volume and excluding anionic co-ions from said second electrode, wherein said held ionic group is attached to the surface of said pore volume, wherein: said ionic group is attached to said surface of said pore volume by a hydrophobic moiety, or at least one of said electrodes comprises a carbon material, and said ionic group is attached by covalent bond to a surface group on said surface of said pore volume, or said ionic group is attached to said surface group by a linker, tether, or long chain molecule. (a) at least two capacitor electrodes having a surface area for electrostatic adsorption and desorption of ions and comprising a pore structure such that each said electrode is a porous electrode having a pore volume; (b) a flow channel for passage of an ion containing fluid, said flow channel in ionic communication with said two electrodes; and (c) at least one ionic group held within the pore volume of each said porous electrode, whereby a first said porous electrode having a first pore volume is an anion-permeable electrode holding cationic groups within said first pore volume and excluding cationic co-ions from said first electrode, and whereby a second porous electrode having a second pore volume is a cation-permeable electrode holding anionic groups within said second pore volume and excluding anionic co-ions from said second electrode, said ionic group is attached to said surface of said pore volume by a hydrophobic moiety, or at least one of said electrodes comprises a carbon material, and said ionic group is attached by covalent bond to a surface group on said surface of said pore volume, or said ionic group is attached to said surface group by a linker, tether, or long chain molecule.
A method for increasing the cold-starting capability and the load application and performance capacity of aircraft with simultaneous oxygen depletion of the system exhaust, an infeed air being compressed in a compressor of an inertization system and being fed into a gas separator of the inertization system, out of which an oxygen-enriched gas and a nitrogen-enriched gas are discharged, wherein a cathode off-gas is further discharged from a fuel cell and is condensed by a condenser, wherein water is separated out of the condensed cathode off-gas by a water separator, wherein the oxygen-enriched gas is fed through a cathode inlet of a fuel cell into the fuel cell, and wherein a partial pressure of oxygen and water vapor in the oxygen-enriched gas and the amount of the provided gas are iteratively adjusted to the relevant values corresponding to the required power capacity of the fuel cell.
A coating material to be applied onto a surface of a suture, comprising calcium stearate and an ε-caprolacton homopolymer or a copolymer of ε-caprolacton and lactide, in which a percentage composition of a copolymer of ε-caprolacton and lactide is 88-97: 12-3 % in molar ratio and an optimum amount of calcium stearate is 0.01 to 1.5 wt.%; in which a percentage composition of a copolymer of ε-caprolacton and lactide is 70-80: 30-20 % in molar ratio and an optimum amount of calcium stearate is 0.1 to 2.5 wt.%; in which a percentage composition of a copolymer of ε-caprolacton and lactide is 45-55: 55-45 % in molar ratio and an optimum amount of calcium stearate is 1.0-3.0 wt.%; or which comprises a homopolymer of ε-caprolacton and calcium stearate in an optimum amount of 0.01 to 1.0 wt.%.