mhurhangee/ep-ind-claims huggingface dataset:
A method of receiving downlink channel, applied to a terminal, comprising: determining a Transmission Configuration Indication, TCI, state of a downlink data channel, wherein the TCI state is a newly determined TCI state; and receiving data through the downlink data channel according to the TCI state; characterized in that, a receiving of a downlink control channel or the downlink data channel is performed according to the TCI state with a high priority within a collision period, according to a preset priority rule; wherein the collision period comprises: an overlapping period between a using period of the TCI state of the downlink data channel and a using period of a TCI state for a current receiving of downlink control channel, the TCI state for the current receiving of downlink control channel is configured by the base station for receiving the downlink control channel; wherein the preset priority rule comprises: a priority of the TCI state for the current receiving of downlink control channel is higher than a priority of the TCI state of the downlink data channel. determining a Transmission Configuration Indication, TCI, state of a downlink data channel, wherein the TCI state is a newly determined TCI state; and receiving data through the downlink data channel according to the TCI state; characterized in that, a receiving of a downlink control channel or the downlink data channel is performed according to the TCI state with a high priority within a collision period, according to a preset priority rule; wherein the collision period comprises: an overlapping period between a using period of the TCI state of the downlink data channel and a using period of a TCI state for a current receiving of downlink control channel, the TCI state for the current receiving of downlink control channel is configured by the base station for receiving the downlink control channel; wherein the preset priority rule comprises: a priority of the TCI state for the current receiving of downlink control channel is higher than a priority of the TCI state of the downlink data channel.
An insertion aid for catheter manipulation, comprising first and second plate-like arms arranged overlying each other and with a separation distance there between, and a resilient hinge (12; 12'; 12") connecting adjacent marginal edges (14; 14') of said plate-like arms together, wherein at least one of said plate-like arms is provided with a groove on a clamping inner surface thereof for holding a catheter shaft, the groove extending at least partly in the same direction as, and preferably essentially parallel to, said resilient hinge (12; 12'; 12"), characterized in that the groove is arranged at a distance both from said resilient hinge (12; 12'; 12") and from the marginal edge (14; 14') of said plate-like arm being opposite to said resilient hinge (12; 12'; 12").
Implant for nerve regeneration, comprising a sheath consisting of fibrin, comprising silk fibers arranged in axial direction inside the sheath, wherein the inner volume of the sheath and between the silk fibers is filled with fibrin and wherein the sheath has tensile strength of at least 12 to 50 kPa.
A separator for a nonaqueous secondary battery comprising a polyolefin microporous membrane at least one surface of which is laminated with a heat resistant porous layer consisting of a heat resistant resin and an inorganic filler, wherein the inorganic filler contains a metallic hydroxide that undergoes dehydration reaction at a temperature of 200 to 400°C, wherein the heat resistant resin is selected from a resin that has a melting point of 250°C or more and a resin that does not have a melting point but has a thermal decomposition temperature of 250°C or more, and wherein the heat resistant resin contains a low molecular weight polymer having a molecular weight of 8,000 or less in an amount of 1 to 15% by weight with respect to a total weight of the heat resistant resin.
A holographic pattern film production process, comprising the steps: 1.1 vapor-deposit an information transfer layer on a base film surface with a holographic pattern to obtain a transfer film; 1.2 coat an adhesive layer on the information transfer layer or a foil film layer and laminate the transfer film and the foil film, wherein the adhesive layer is an acrylic resin or a modified acrylic resin, an urethane resin or a modified polyurethane resin, an epoxy resin or a modified epoxy resin, or a copolymer or mixture of the above substances; and 1.3 peel off the base film to get the holographic pattern film; wherein a trench structure of the holographic pattern on the base film surface is copied to the information transfer layer; characterized in that the foil film layer is selected from PET film, PP film, PI film, PC film, PS film, PE film, PVC film, PVDC film, nylon film, composite films of the above films, aluminum foil film, copper foil film and other common metal foil film. 1.1 vapor-deposit an information transfer layer on a base film surface with a holographic pattern to obtain a transfer film; 1.2 coat an adhesive layer on the information transfer layer or a foil film layer and laminate the transfer film and the foil film, wherein the adhesive layer is an acrylic resin or a modified acrylic resin, an urethane resin or a modified polyurethane resin, an epoxy resin or a modified epoxy resin, or a copolymer or mixture of the above substances; and 1.3 peel off the base film to get the holographic pattern film;
A light emitting device (100, 100A, 100B) comprising: a substrate extending in a first direction corresponding to a longitudinal direction of the substrate; wherein the substrate includes a flexible base, a plurality of wiring portions arranged on the base and a groove portion (14, 14A, 14B) formed between the plurality of wiring portions being spaced apart from each other; a light emitting element disposed on the substrate and electrically connected to the plurality of wiring portions; and a sealing resin member sealing the light emitting element and a part of the substrate; wherein the sealing resin member is spaced apart from a first groove portion of the groove portion (14, 14A, 14B), the first groove portion extending in a second direction intersecting the first direction, wherein the sealing resin member and the first groove portion are arranged along the first direction at different locations, wherein the groove portion (14, 14A, 14B) comprises a first groove portion, a second groove portion extending in the second direction, and a third groove portion connecting the first groove portion and the second groove portion, and the sealing resin member is disposed over the third groove portion. a substrate extending in a first direction corresponding to a longitudinal direction of the substrate; wherein the substrate includes a flexible base, a plurality of wiring portions arranged on the base and a groove portion (14, 14A, 14B) formed between the plurality of wiring portions being spaced apart from each other; a light emitting element disposed on the substrate and electrically connected to the plurality of wiring portions; and a sealing resin member sealing the light emitting element and a part of the substrate; wherein the sealing resin member is spaced apart from a first groove portion of the groove portion (14, 14A, 14B), the first groove portion extending in a second direction intersecting the first direction, wherein the sealing resin member and the first groove portion are arranged along the first direction at different locations, wherein the groove portion (14, 14A, 14B) comprises a first groove portion, a second groove portion extending in the second direction, and a third groove portion connecting the first groove portion and the second groove portion, and the sealing resin member is disposed over the third groove portion. wherein the sealing resin member is spaced apart from a first groove portion of the groove portion (14, 14A, 14B), the first groove portion extending in a second direction intersecting the first direction, wherein the sealing resin member and the first groove portion are arranged along the first direction at different locations, wherein the groove portion (14, 14A, 14B) comprises a first groove portion, a second groove portion extending in the second direction, and a third groove portion connecting the first groove portion and the second groove portion, and the sealing resin member is disposed over the third groove portion.
A process for producing a fiber-reinforced plastic, the process comprising: placing a fiber-reinforced material which contains a reinforcing fiber impregnated with a thermosetting resin composition between a single-sided mold and a bagging film to form a closed space created by the single-sided mold and the bagging film; sucking the closed space with a vacuum pump to pressurize the fiber-reinforced material by utilizing a pressure difference from an atmospheric pressure; locally heating the fiber-reinforced material by using a contact heat source under a temperature condition different from an atmosphere temperature in a state where the fiber-reinforced material is pressurized; and curing the fiber-reinforced material to mold the fiber-reinforced plastic, characterized in that the temperature condition is designed in a direction for eliminating the warpage of the obtained fiber-reinforced plastic, by predicting the strain of the fiber-reinforced material during molding by solving the balance of the forces considering the thermal contraction and the curing contraction as well as the viscoelastic characteristics of the resin which are calculated based on the distribution of temperatures and degrees of cure which is predicted by the heat transfer analysis which considers cure kinetics parameters of the thermosetting resin. placing a fiber-reinforced material which contains a reinforcing fiber impregnated with a thermosetting resin composition between a single-sided mold and a bagging film to form a closed space created by the single-sided mold and the bagging film; sucking the closed space with a vacuum pump to pressurize the fiber-reinforced material by utilizing a pressure difference from an atmospheric pressure; locally heating the fiber-reinforced material by using a contact heat source under a temperature condition different from an atmosphere temperature in a state where the fiber-reinforced material is pressurized; and curing the fiber-reinforced material to mold the fiber-reinforced plastic, characterized in that the temperature condition is designed in a direction for eliminating the warpage of the obtained fiber-reinforced plastic, by predicting the strain of the fiber-reinforced material during molding by solving the balance of the forces considering the thermal contraction and the curing contraction as well as the viscoelastic characteristics of the resin which are calculated based on the distribution of temperatures and degrees of cure which is predicted by the heat transfer analysis which considers cure kinetics parameters of the thermosetting resin.
A display device comprising: a substrate comprising a display area comprising pixels, and a non-display area around the display area; a pad part in the non-display area; antistatic circuits between the pad part and the pixels; a first resistance line connected to the pad part and to the antistatic circuits; a second resistance line connected to the first resistance line and overlapping the first resistance line; and a fan-out line connected between the second resistance line and a respective one of the pixels, characterised in that the first and second resistance lines extend while being bent multiple times in a zigzag fashion between the antistatic circuits, and the second resistance line crosses the first resistance line in a plan view. a substrate comprising a display area comprising pixels, and a non-display area around the display area; a pad part in the non-display area; antistatic circuits between the pad part and the pixels; a first resistance line connected to the pad part and to the antistatic circuits; a second resistance line connected to the first resistance line and overlapping the first resistance line; and a fan-out line connected between the second resistance line and a respective one of the pixels, characterised in that the first and second resistance lines extend while being bent multiple times in a zigzag fashion between the antistatic circuits, and the second resistance line crosses the first resistance line in a plan view.
A polyvalent liquid culture medium for culture in aerobic atmosphere of anaerobic bacteria or aerobic bacteria comprising a basal culture medium for aerobic and anaerobic bacteria characterized in that it further comprises the mixture of the following antioxidant compounds: sodium hydrosulphide (Na 2 S), L-cysteine, ascorbic acid, glutathione, catalase, ubiquinol and lipoic acid.
A method for receiving a downlink signal in a wireless communication system, the method performed by a user equipment and comprising: receiving resource block assignment information including a bitmap related to a bandwidth part i, i being 0 or a natural number; and receiving the downlink signal through a resource block group, RBG, indicated by the bitmap in the bandwidth part i, wherein based on N start BWP,i denoting an index of a starting resource block of the bandwidth part i, N size BWP,i denoting a size of the bandwidth part i and P denoting a size of one RBG: a total number, N RBG, of RBGs for the bandwidth part i is determined based on a following equation, N RBG = ⌈ N BWP, i size + N BWP, i start mod P / P ⌉ and wherein the bitmap is of size N RBG bits. receiving resource block assignment information including a bitmap related to a bandwidth part i, i being 0 or a natural number; and receiving the downlink signal through a resource block group, RBG, indicated by the bitmap in the bandwidth part i, wherein based on N start BWP,i denoting an index of a starting resource block of the bandwidth part i, N size BWP,i denoting a size of the bandwidth part i and P denoting a size of one RBG: a total number, N RBG, of RBGs for the bandwidth part i is determined based on a following equation, N RBG = ⌈ N BWP, i size + N BWP, i start mod P / P ⌉ and wherein the bitmap is of size N RBG bits.
Commercial vehicle structure of a commercial vehicle which is driven by a drive engine and has an engine control device, comprising - a hydraulic consumer system (3, 8) which can be operated in different operating states, - a pump which is to be driven in a rotary manner by the drive engine and is intended to supply the hydraulic consumer system (3, 8) with hydraulic fluid, the capacity of the pump depending on the pump rotational speed thereof, - a control device (7, 12) which is intended to control the supply of hydraulic fluid to the hydraulic consumer system (3, 8) and is designed to interact with the engine control in order to set the engine rotational speed of the drive engine and therefore the pump rotational speed in accordance with the current hydraulic fluid requirement of the consumer system (3, 8), and - setting means (15, 17, 25, 33) for setting a particular operating state of the hydraulic consumer system (3, 8) by means of a hydraulic fluid requirement assigned to said operating state, the setting means (15, 17, 25, 33) transmitting information about the particular set operating state of the hydraulic consumer system (3, 8) to the control device (7, 12), characterised in that, in order to detect the current pump rotational speed, a rotary encoder is provided for providing a rotary encoder signal which indicates the pump rotation and is designed to transmit the rotary encoder signal to the control device (7, 12), and in that the control device (7, 12) is designed to process the rotary encoder signal in order to detect a particular rotational speed difference between the current pump rotational speed and a target pump rotational speed assigned to the operating state of the hydraulic consumer system (3, 8) set in each case, and to prompt the engine control device to change the engine rotational speed in order to reduce, in particular to eliminate, the rotational speed difference. - a hydraulic consumer system (3, 8) which can be operated in different operating states, - a pump which is to be driven in a rotary manner by the drive engine and is intended to supply the hydraulic consumer system (3, 8) with hydraulic fluid, the capacity of the pump depending on the pump rotational speed thereof, - a control device (7, 12) which is intended to control the supply of hydraulic fluid to the hydraulic consumer system (3, 8) and is designed to interact with the engine control in order to set the engine rotational speed of the drive engine and therefore the pump rotational speed in accordance with the current hydraulic fluid requirement of the consumer system (3, 8), and - setting means (15, 17, 25, 33) for setting a particular operating state of the hydraulic consumer system (3, 8) by means of a hydraulic fluid requirement assigned to said operating state, the setting means (15, 17, 25, 33) transmitting information about the particular set operating state of the hydraulic consumer system (3, 8) to the control device (7, 12),
A method for wireless communication, comprising: receiving a codeword over a wireless channel, the codeword being encoded using a polar code; identifying a set of punctured bit locations in the received codeword; identifying a set of bit locations of the polar code used for information bits for the encoding, wherein the set of bit locations is determined based at least in part on an information bit allocation determined by a recursive partitioning of bit-channels of the polar code for each stage of polarization and an assignment of portions of a number of the information bits of each stage of polarization to bit-channel partitions based on a mutual information transfer function of respective aggregate capacities of the bit-channel partitions, and wherein a target mutual information for a first polarization stage is determined as a function of the number of the information bits and a number of un-punctured bit locations in the received codeword; and decoding the received codeword according to the polar code to obtain an information bit vector at the set of bit locations. receiving a codeword over a wireless channel, the codeword being encoded using a polar code; identifying a set of punctured bit locations in the received codeword; identifying a set of bit locations of the polar code used for information bits for the encoding, wherein the set of bit locations is determined based at least in part on an information bit allocation determined by a recursive partitioning of bit-channels of the polar code for each stage of polarization and an assignment of portions of a number of the information bits of each stage of polarization to bit-channel partitions based on a mutual information transfer function of respective aggregate capacities of the bit-channel partitions, and wherein a target mutual information for a first polarization stage is determined as a function of the number of the information bits and a number of un-punctured bit locations in the received codeword; and decoding the received codeword according to the polar code to obtain an information bit vector at the set of bit locations.
X-ray tube for a stereoscopic imaging, having - an evacuated x-ray tube housing, - an electron emitter apparatus arranged in the x-ray tube housing, - an anode unit arranged in the x-ray tube housing for generating x-ray radiation for the stereoscopic imaging as a function of electrons striking two focal points (BF A, BF B) and - a control unit, - wherein the electron emitter apparatus comprises a first field effect emitter with a first emitter surface (13.A) and a second field effect emitter with a second emitter surface (14.A), - wherein the first emitter surface (13.A) and the second emitter surface (14.A) have a substantially x-ray-transparent material, - wherein the first emitter surface (13.A) and/or the second emitter surface is segmented so that a portion of the electron-emitting surface (13.E, 14.E) can be set relative to the respective overall emitter surface (13.A, 14.A) by selectively switching the emitter segments, characterised in that - the first emitter surface (13.A) and the second emitter surface (14.A) are arranged in the beam path of the x-ray radiation generated in the respective focal point (BF A, BF B) and - the control unit is embodied to set a distance (A BF) between the two focal points (BF A, BF B) by indicating the portion of the electron-emitting surface of the first emitter surface and/or the second emitter surface. - an evacuated x-ray tube housing, - an electron emitter apparatus arranged in the x-ray tube housing, - an anode unit arranged in the x-ray tube housing for generating x-ray radiation for the stereoscopic imaging as a function of electrons striking two focal points (BF A, BF B) and - a control unit, - wherein the electron emitter apparatus comprises a first field effect emitter with a first emitter surface (13.A) and a second field effect emitter with a second emitter surface (14.A), - wherein the first emitter surface (13.A) and the second emitter surface (14.A) have a substantially x-ray-transparent material, - wherein the first emitter surface (13.A) and/or the second emitter surface is segmented so that a portion of the electron-emitting surface (13.E, 14.E) can be set relative to the respective overall emitter surface (13.A, 14.A) by selectively switching the emitter segments, characterised in that - the first emitter surface (13.A) and the second emitter surface (14.A) are arranged in the beam path of the x-ray radiation generated in the respective focal point (BF A, BF B) and - the control unit is embodied to set a distance (A BF) between the two focal points (BF A, BF B) by indicating the portion of the electron-emitting surface of the first emitter surface and/or the second emitter surface.
A method for detecting capsule defects in a filter of the tobacco processing industry, in which a microwave measuring instrument measures values indicative for a density and/or moisture of the filter along its longitudinal direction, wherein the method comprises the following steps: a. Comparing of measured values with a threshold value, wherein a capsule fault is present in the filter if the threshold value is undercut, and b. Determining a value for a fluctuation measure of the measured values in a range before and/or after a measuring point in which at least one measured value falls below the threshold value, characterized in that the method further comprises the following step: c. comparing the value for the fluctuation measure with a predetermined capsule threshold value, wherein i. a broken capsule is present if the capsule threshold is exceeded and ii. an absent capsule is present if the capsule threshold is undercut. a. Comparing of measured values with a threshold value, wherein a capsule fault is present in the filter if the threshold value is undercut, and b. Determining a value for a fluctuation measure of the measured values in a range before and/or after a measuring point in which at least one measured value falls below the threshold value, i. a broken capsule is present if the capsule threshold is exceeded and ii. an absent capsule is present if the capsule threshold is undercut.
An RNA-modulating agent comprising an mRNA binding sequence that is complementary to a portion of a target mRNA sequence, linked to two or more miRNA binding sequences, wherein one or more of the miRNA binding sequences are complementary to at least positions 2 to 8 of an miRNA, but not complementary to positions 10 and 11 of the miRNA, wherein the RNA-modulating agent inhibits or silences a mRNA to which it binds.