mhurhangee/ep-ind-claims huggingface dataset:
A communication device configured to communicate with a network via at least one carrier, wherein the at least one carrier comprises a plurality of transmission time interval, TTI, length configurations, wherein the communication device comprises: a soft buffer for storing a downlink data transmission from the network; a storage unit configured to store a program code; and a processor electrically coupled to the storage unit, wherein the processor is configured to access the program code to partition the soft buffer into a plurality of soft buffer partitions (SBP1, SBP2), characterized in that each of the soft buffer partitions corresponds to one of the plurality of TTI length configurations, and the soft buffer is partitioned in a proportion to the respective number of configured Physical Resource Blocks, PRBs, corresponding to the TTI length configurations. a soft buffer for storing a downlink data transmission from the network; a storage unit configured to store a program code; and a processor electrically coupled to the storage unit, wherein the processor is configured to access the program code to partition the soft buffer into a plurality of soft buffer partitions (SBP1, SBP2), characterized in that each of the soft buffer partitions corresponds to one of the plurality of TTI length configurations, and the soft buffer is partitioned in a proportion to the respective number of configured Physical Resource Blocks, PRBs, corresponding to the TTI length configurations.
A cap cover covering a battery pack comprising: a first plate formed in a first direction; a second plate formed in a second direction; and a third plate formed in a third direction, wherein the first and third plates (10a, 10c) have a height difference therebetween due to the second plate and cover upper surfaces of a plurality of battery cells (20a, 20b, 20c, 20d) arranged with a height difference therebetween, and the second plate covers an exposed area exposed by the height difference between the battery cells (20b, 20c) and includes a temperature sensor inserting part configured to accommodate a temperature sensor. a first plate formed in a first direction; a second plate formed in a second direction; and a third plate formed in a third direction, wherein the first and third plates (10a, 10c) have a height difference therebetween due to the second plate and cover upper surfaces of a plurality of battery cells (20a, 20b, 20c, 20d) arranged with a height difference therebetween, and the second plate covers an exposed area exposed by the height difference between the battery cells (20b, 20c) and includes a temperature sensor inserting part configured to accommodate a temperature sensor.
A system, comprising: a gas turbine combustor, comprising: a combustion liner disposed about a combustion region; a flow sleeve disposed about the combustion liner; an air passage between the combustion liner and the flow sleeve; and a mounting assembly disposed in the air passage, wherein the mounting assembly is configured to retain the combustion liner within the flow sleeve, and the mounting assembly comprises: a flow sleeve mount coupled to the flow sleeve; and a liner stop coupled to the combustion liner, wherein the flow sleeve mount and the liner stop couple with one another to define the airfoil shape, and wherein the flow sleeve mount comprises a first portion of the airfoil shape and the liner stop comprises a second portion of the airfoil shape, and wherein the airfoil shape is configured to direct an airflow into a wake region downstream of the mounting assembly, and wherein the airfoil shape comprises a leading edge and a trailing edge, the leading edge faces toward a direction of the airflow, the trailing edge faces away from the direction of the airflow, and a trailing edge angle of the airfoil shape is less than a leading edge angle of the airfoil shape. a combustion liner disposed about a combustion region; a flow sleeve disposed about the combustion liner; an air passage between the combustion liner and the flow sleeve; and a mounting assembly disposed in the air passage, wherein the mounting assembly is configured to retain the combustion liner within the flow sleeve, and the mounting assembly comprises: a flow sleeve mount coupled to the flow sleeve; and a liner stop coupled to the combustion liner, a flow sleeve mount coupled to the flow sleeve; and a liner stop coupled to the combustion liner, wherein the flow sleeve mount and the liner stop couple with one another to define the airfoil shape, and wherein the flow sleeve mount comprises a first portion of the airfoil shape and the liner stop comprises a second portion of the airfoil shape, and wherein the airfoil shape is configured to direct an airflow into a wake region downstream of the mounting assembly, and wherein the airfoil shape comprises a leading edge and a trailing edge, the leading edge faces toward a direction of the airflow, the trailing edge faces away from the direction of the airflow, and a trailing edge angle of the airfoil shape is less than a leading edge angle of the airfoil shape.
A method for preparing a fluorosulfonate salt, comprising: reacting dissolved sulfuryl fluoride (SO 2 F 2) with an alcohol in the presence of an aprotic base, wherein the alcohol is a primary alcohol or a primary alkoxyalcohol selected from the group consisting of methanol, ethanol, n-propanol, n-butanol, n-pentanol, n-hexanol, 2-methoxyethanol, 3-methoxypropanol, 2-ethoxyethanol, and 3-ethoxypropanol, benzyl alcohol, a ring-substituted benzyl alcohol, and 2-ethylhexanol; and isolating a resulting onium salt [RB +] [FSO 3 -]. reacting dissolved sulfuryl fluoride (SO 2 F 2) with an alcohol in the presence of an aprotic base, wherein the alcohol is a primary alcohol or a primary alkoxyalcohol selected from the group consisting of methanol, ethanol, n-propanol, n-butanol, n-pentanol, n-hexanol, 2-methoxyethanol, 3-methoxypropanol, 2-ethoxyethanol, and 3-ethoxypropanol, benzyl alcohol, a ring-substituted benzyl alcohol, and 2-ethylhexanol; and isolating a resulting onium salt [RB +] [FSO 3 -].
A method for wireless communications performed by a first user equipment, UE, of a first cell, the method comprising: receiving, from a first base station, a set of cross-link interference measurement configurations and location information, wherein the location information comprises a location of one or more second UEs of a second cell or a location of a second base station of the second cell; removing at least one cross-link interference measurement configuration from the set of cross-link interference measurement configurations or removing at least one location of a second UE of the second cell from the location information; performing a cross-link interference measurement procedure on signals received based at least in part on the remaining cross-link interference measurement configurations of the set of cross-link interference measurement configurations, or the remaining locations of the location information, or a combination thereof; and transmitting, to the first base station, a measurement value based at least in part on the performed cross-link interference measurement procedure. receiving, from a first base station, a set of cross-link interference measurement configurations and location information, wherein the location information comprises a location of one or more second UEs of a second cell or a location of a second base station of the second cell; removing at least one cross-link interference measurement configuration from the set of cross-link interference measurement configurations or removing at least one location of a second UE of the second cell from the location information; performing a cross-link interference measurement procedure on signals received based at least in part on the remaining cross-link interference measurement configurations of the set of cross-link interference measurement configurations, or the remaining locations of the location information, or a combination thereof; and transmitting, to the first base station, a measurement value based at least in part on the performed cross-link interference measurement procedure.
A semiconductor laser device formed on a semiconductor substrate, the device comprising: a passivation layer arranged on an upper surface of the device structure for resisting moisture ingress, characterised in that the passivation layer comprises an inner layer comprising a pinhole-free layer of aluminium oxide and deposited on the upper surface of the device by atomic layer deposition and an outer layer deposited on the inner layer by chemical vapour deposition, and comprising a material that is inert in the presence of water. a passivation layer arranged on an upper surface of the device structure for resisting moisture ingress,
A substantially pure (-)-epicatechin for use in the treatment of a FGFR3-related chondrodysplasia in a patient in need thereof wherein substantially pure means that there are either no detectable related-substance impurities, or if a single related-substance impurity is detected, it is present in an amount no greater than 0.1% by weight, or if multiple related-substance impurities are detected, they are present in aggregate in an amount no greater than 0.6% by weight.
A desensitizing device, comprising an electrical stimulation member and a support member, the support member having an outer circumference, an inner circumference, a through channel surrounded by the inner circumference, and an accommodation space with a first opening on the outer circumference and at least two second openings on the inner circumference, wherein the electrical stimulation member is disposed in the support member and comprises: a control circuit configured for producing a stimulating current which comprises a first frequency signal between 200 KHz and 800 KHz; at least two electrodes exposed from the inner circumference through the second openings, respectively, and configured to be attached to a user's skin and electrically connected to the control circuit, configured for receiving the simulating current from the control circuit, and for applying the stimulating current to the skin, so that the stimulating current is provided to a subcutaneous nerve through the skin, and the subcutaneous nerve is temporarily desensitized; and an electric power supply unit electrically connected to the control circuit for providing electric power to the control circuit. a control circuit configured for producing a stimulating current which comprises a first frequency signal between 200 KHz and 800 KHz; at least two electrodes exposed from the inner circumference through the second openings, respectively, and configured to be attached to a user's skin and electrically connected to the control circuit, configured for receiving the simulating current from the control circuit, and for applying the stimulating current to the skin, so that the stimulating current is provided to a subcutaneous nerve through the skin, and the subcutaneous nerve is temporarily desensitized; and an electric power supply unit electrically connected to the control circuit for providing electric power to the control circuit.
A method for sending data, comprising: sending data carried by a physical downlink control channel, PDCCH, over first n orthogonal frequency division multiplex, OFDM, symbols in a subframe, characterized in that: for a non-multimedia broadcast/multicast service single frequency network, non-MBSFN, subframe, when a system adopts normal cyclic prefix, the system bandwidth is less than or equal to 10 resource blocks and the subframe comprises positioning reference signals, PRSs, to be sent, n is 2 or 3. sending data carried by a physical downlink control channel, PDCCH, over first n orthogonal frequency division multiplex, OFDM, symbols in a subframe, characterized in that: for a non-multimedia broadcast/multicast service single frequency network, non-MBSFN, subframe, when a system adopts normal cyclic prefix, the system bandwidth is less than or equal to 10 resource blocks and the subframe comprises positioning reference signals, PRSs, to be sent, n is 2 or 3.
A method for post-processing an audio signal, performed by an electronic device, the method comprising the steps of: obtaining a first speech signal acquired by a first device; performing frame blocking on the first speech signal, to obtain multiple speech signal frames; converting the multiple speech signal frames into multiple first frequency domain signal frames; the method is characterised by further comprising the steps of: performing aliasing processing on a first sub-frequency domain signal lower than or equal to a target frequency threshold in each first frequency domain signal frame in the multiple first frequency domain signal frames, and reserving a second sub-frequency domain signal higher than the target frequency threshold in the each first frequency domain signal frame, to obtain multiple second frequency domain signal frames, the target frequency threshold being related to a sampling frequency of a second device; and performing frame fusion on the multiple second frequency domain signal frames, to obtain a second speech signal. obtaining a first speech signal acquired by a first device; performing frame blocking on the first speech signal, to obtain multiple speech signal frames; converting the multiple speech signal frames into multiple first frequency domain signal frames; the method is characterised by further comprising the steps of: performing aliasing processing on a first sub-frequency domain signal lower than or equal to a target frequency threshold in each first frequency domain signal frame in the multiple first frequency domain signal frames, and reserving a second sub-frequency domain signal higher than the target frequency threshold in the each first frequency domain signal frame, to obtain multiple second frequency domain signal frames, the target frequency threshold being related to a sampling frequency of a second device; and performing frame fusion on the multiple second frequency domain signal frames, to obtain a second speech signal. performing aliasing processing on a first sub-frequency domain signal lower than or equal to a target frequency threshold in each first frequency domain signal frame in the multiple first frequency domain signal frames, and reserving a second sub-frequency domain signal higher than the target frequency threshold in the each first frequency domain signal frame, to obtain multiple second frequency domain signal frames, the target frequency threshold being related to a sampling frequency of a second device; and performing frame fusion on the multiple second frequency domain signal frames, to obtain a second speech signal.
A connecting device that has at least one flexible container for connecting the container to a flange or a connecting ring, comprising 1.1 an outer ring (10, 10', 10"), which has an inner surface radially on the inside, and a connection side facing the flange or the connecting ring, and 1.2 an inner ring (20, 20', 20") which has an outer surface radially on the outside, about which an end section of the container is turned over, 1.3 the outer surface and the inner surface being formed at least partially congruent with one another so that the end section can be clamped between the outer ring (10, 10', 10") and the inner ring (20, 20', 20") in order to bring about a connected position, 1.4 and the inner ring (20, 20', 20") being able to be inserted into the outer ring (10, 10', 10") from the connection side, and in the connected position said inner ring (20, 20', 20") being supported in the outer ring (10, 10', 10") facing away from the connection side, the outer ring (10, 10', 10") having radially on the inside a completely circumferential, radially inwardly open receptacle groove with a round cross section, the inner ring being formed in one part and with a round cross section in one area of the outer surface, and the inner ring being composed of a single flexible material such that it allows the inner ring to click into the receptacle groove in order to bring about the connected position. 1.1 an outer ring (10, 10', 10"), which has an inner surface radially on the inside, and a connection side facing the flange or the connecting ring, and 1.2 an inner ring (20, 20', 20") which has an outer surface radially on the outside, about which an end section of the container is turned over, 1.3 the outer surface and the inner surface being formed at least partially congruent with one another so that the end section can be clamped between the outer ring (10, 10', 10") and the inner ring (20, 20', 20") in order to bring about a connected position, 1.4 and the inner ring (20, 20', 20") being able to be inserted into the outer ring (10, 10', 10") from the connection side, and in the connected position said inner ring (20, 20', 20") being supported in the outer ring (10, 10', 10") facing away from the connection side, the outer ring (10, 10', 10") having radially on the inside a completely circumferential, radially inwardly open receptacle groove with a round cross section, the inner ring being formed in one part and with a round cross section in one area of the outer surface, and the inner ring being composed of a single flexible material such that it allows the inner ring to click into the receptacle groove in order to bring about the connected position.
A double pipe heat exchanger comprising: an inner pipe inside which a first fluid passes; an outer pipe that has a diameter larger than a diameter of the inner pipe and that covers the inner pipe, the inner pipe and the outer pipe configured to allow a second fluid to pass through a space defined therebetween; and a heat transfer area enlargement pipe that is provided in the space and that has a projection-depression shape in which, in a pipe cross section, an angle between the heat transfer area enlargement pipe and the outer wall of the inner pipe at each of inner contact portions to be contact areas between an outer wall of the inner pipe and the heat transfer area enlargement pipe is smaller than an angle between the heat transfer area enlargement pipe and the inner wall of the outer pipe at each of outer contact portions to be contact areas between an inner wall of the outer pipe and the heat transfer area enlargement pipe, in which, in the pipe cross section, a length in a pipe-circumferential direction of the inner contact portions to be contact areas with the outer wall of the inner pipe is made to be larger than a length in a pipe-circumferential direction of outer contact portions to be contact areas with the inner wall of the outer pipe, and in which, fin portions between the inner contact portions and the outer contact portions that traverse the space in the pipe cross section come into contact with the outer wall of the inner pipe and the inner wall of the outer pipe in oblique directions, characterised in that the fin portions each have an arc shape in the pipe cross section. an inner pipe inside which a first fluid passes; an outer pipe that has a diameter larger than a diameter of the inner pipe and that covers the inner pipe, the inner pipe and the outer pipe configured to allow a second fluid to pass through a space defined therebetween; and a heat transfer area enlargement pipe that is provided in the space and that has a projection-depression shape in which, in a pipe cross section, an angle between the heat transfer area enlargement pipe and the outer wall of the inner pipe at each of inner contact portions to be contact areas between an outer wall of the inner pipe and the heat transfer area enlargement pipe is smaller than an angle between the heat transfer area enlargement pipe and the inner wall of the outer pipe at each of outer contact portions to be contact areas between an inner wall of the outer pipe and the heat transfer area enlargement pipe, in which, in the pipe cross section, a length in a pipe-circumferential direction of the inner contact portions to be contact areas with the outer wall of the inner pipe is made to be larger than a length in a pipe-circumferential direction of outer contact portions to be contact areas with the inner wall of the outer pipe, and in which, fin portions between the inner contact portions and the outer contact portions that traverse the space in the pipe cross section come into contact with the outer wall of the inner pipe and the inner wall of the outer pipe in oblique directions, characterised in that the fin portions each have an arc shape in the pipe cross section.
A liquid crystal panel, comprising: a substrate; a pixel electrode disposed on the substrate, the pixel electrode comprising a first subpixel electrode and a second subpixel electrode separated from each other, and an alignment layer arranged on the pixel electrode; wherein the second subpixel electrode comprises a first electrode part (191b1) disposed in plan view above the first subpixel electrode, and a second electrode part (191b2) disposed in plan view below the first subpixel electrode at least one first notch is arranged at a corner of the second subpixel electrode wherein two edges of the second subpixel electrode meet at a point, the first notch comprises a size a range of 3μm to 15μm by 15μm, characterized in that the first notch comprises only two sides meeting at a point and forming a right angle, the alignment layer comprises at least one light treated surface, and a second electrode part is electrically connected to the first electrode part a substrate; a pixel electrode disposed on the substrate, the pixel electrode comprising a first subpixel electrode and a second subpixel electrode separated from each other, and an alignment layer arranged on the pixel electrode;
A polarizing plate comprising: a polarizer; and a protective layer is on one surface or both surfaces of the polarizer directly adjoining the polarizer, wherein the protective layer is a cured material of a photocurable composition for a polarizing plate protective layer comprising an epoxy compound and an oxetane-based compound, the protective layer had a thickness of 4 μm to 11 μm, and the following Equation 1 is satisfied in a spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer: 0.9 ≤ I e I a + I e in Equation 1, I e is a ratio of peak intensity at 920 cm -1 to 900 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer; and I a is peak intensity at 1420 cm -1 to 1380 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer. a polarizer; and a protective layer is on one surface or both surfaces of the polarizer directly adjoining the polarizer, I e is a ratio of peak intensity at 920 cm -1 to 900 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer; and I a is peak intensity at 1420 cm -1 to 1380 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer.