mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication at a distributed unit, DU, comprising: signaling, to a radio unit, RU, a maximum IQ data bitwidth for a downlink communication associated with a section identifier, ID; signaling, to the RU, a bitwidth parameter for the downlink communication per a physical resource block, PRB; receiving capability signaling from the RU prior to transmitting the downlink communication, wherein the capability signaling indicates either that the RU does not support the PRB bitwidth granularity or that the RU supports the PRB bitwidth granularity; and transmitting the downlink communication to the RU based on at least one of the maximum IQ data bitwidth or the bitwidth parameter for the PRB, wherein the downlink communication is transmitted based on the maximum IQ data bitwidth for the RU that does not support a per PRB bitwidth granularity and wherein the downlink communication is transmitted based on the bitwidth parameter for the PRB for the RU that supports a per PRB bitwidth granularity. signaling, to a radio unit, RU, a maximum IQ data bitwidth for a downlink communication associated with a section identifier, ID; signaling, to the RU, a bitwidth parameter for the downlink communication per a physical resource block, PRB; receiving capability signaling from the RU prior to transmitting the downlink communication, wherein the capability signaling indicates either that the RU does not support the PRB bitwidth granularity or that the RU supports the PRB bitwidth granularity; and transmitting the downlink communication to the RU based on at least one of the maximum IQ data bitwidth or the bitwidth parameter for the PRB, wherein the downlink communication is transmitted based on the maximum IQ data bitwidth for the RU that does not support a per PRB bitwidth granularity and wherein the downlink communication is transmitted based on the bitwidth parameter for the PRB for the RU that supports a per PRB bitwidth granularity.
A composition comprising a water soluble zinc salt for use in prevention and/or treatment of stress urinary incontinence, pelvic organ prolapse, atrophic vaginitis and discomfort related to atrophic vaginitis selected from vaginal dryness, vaginal and/or vulvar irritation/itching, vaginal soreness, dysuria, dyspareunia and vaginal bleeding associated with sexual activity, wherein the composition stimulates elastin and/or collagen production in the tissue of the vagina.
A device configured to operate in a wireless communication system, the device being a user equipment, UE, and comprising: a communication module; and a processor configured to control the communication module, wherein the processor is configured to: receive scheduling information for a physical uplink shared channel, PUSCH, transmission by the UE; after a reception of the scheduling information, receive a group common physical downlink control channel, PDCCH, including a preemption indicator at a monitoring time, the preemption indicator indicating at least one resource part among a plurality of resource parts within a reference uplink, UL, resource; and when the indicated at least one resource part overlaps with a resource scheduled for the PUSCH transmission, cancel the PUSCH transmission by the UE at least in symbol(s) overlapping with the indicated at least one resource part, wherein the reference UL resource is started in time after an offset from the monitoring time, and a value of the offset is associated with a PUSCH processing time. a communication module; and a processor configured to control the communication module, wherein the processor is configured to: receive scheduling information for a physical uplink shared channel, PUSCH, transmission by the UE; after a reception of the scheduling information, receive a group common physical downlink control channel, PDCCH, including a preemption indicator at a monitoring time, the preemption indicator indicating at least one resource part among a plurality of resource parts within a reference uplink, UL, resource; and when the indicated at least one resource part overlaps with a resource scheduled for the PUSCH transmission, cancel the PUSCH transmission by the UE at least in symbol(s) overlapping with the indicated at least one resource part, wherein the reference UL resource is started in time after an offset from the monitoring time, and a value of the offset is associated with a PUSCH processing time. receive scheduling information for a physical uplink shared channel, PUSCH, transmission by the UE; after a reception of the scheduling information, receive a group common physical downlink control channel, PDCCH, including a preemption indicator at a monitoring time, the preemption indicator indicating at least one resource part among a plurality of resource parts within a reference uplink, UL, resource; and when the indicated at least one resource part overlaps with a resource scheduled for the PUSCH transmission, cancel the PUSCH transmission by the UE at least in symbol(s) overlapping with the indicated at least one resource part, wherein the reference UL resource is started in time after an offset from the monitoring time, and a value of the offset is associated with a PUSCH processing time.
Optoelectronic component comprising: - a semiconductor body, which has a semiconductor layer sequence having an active region suitable for generating radiation, - a reflector layer arranged on the semiconductor body, and - two electrical contacts (7, 8), wherein a first contact of the two contacts on the side of the active region facing the reflector layer is electrically conductively connected to the semiconductor body, the second contact of the two contacts on the side of the active region facing away from the reflector layer is electrically conductively connected to the semiconductor body, and the reflector layer is arranged between a partial region of the second contact and the semiconductor body, and wherein a partial region of the second contact is arranged between the first contact and the semiconductor body. - a semiconductor body, which has a semiconductor layer sequence having an active region suitable for generating radiation, - a reflector layer arranged on the semiconductor body, and - two electrical contacts (7, 8), wherein
A cementing tool for use in oil and gas well decommissioning operations, wherein the well has a casing of specified drift diameter, the tool comprising: a generally cylindrical body with an interior void; and at least one nozzle aperture formed in the body for passing cement from the interior void to an exterior of the body; wherein the body, or a portion of it, has a selectively adjustable outer diameter; characterised in that the body or portion is adjustable between a first outer diameter and a second, larger, outer diameter, wherein the second diameter is 0.1 to 0.75 inches (0.25 to 1.90cm) smaller than the drift diameter of the casing. a generally cylindrical body with an interior void; and at least one nozzle aperture formed in the body for passing cement from the interior void to an exterior of the body; wherein the body, or a portion of it, has a selectively adjustable outer diameter; characterised in that the body or portion is adjustable between a first outer diameter and a second, larger, outer diameter, wherein the second diameter is 0.1 to 0.75 inches (0.25 to 1.90cm) smaller than the drift diameter of the casing.
Cosmetic or dermatological composition comprising, in a physiologically acceptable support: a) at least one merocyanine compound corresponding to one of the following formula and also the E/E- or E/Z- geometrical isomer forms thereof: in which: A is -O- or -NH; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, it being possible for the said groups to be interrupted with one or more O; and b) at least one oily phase, and c) at least one C 1 -C 4 monoalkanol. a) at least one merocyanine compound corresponding to one of the following formula and also the E/E- or E/Z- geometrical isomer forms thereof: in which: A is -O- or -NH; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, it being possible for the said groups to be interrupted with one or more O; and A is -O- or -NH; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, it being possible for the said groups to be interrupted with one or more O; and b) at least one oily phase, and c) at least one C 1 -C 4 monoalkanol.
Method for preparing an electrochemical device composed of a polyether/lithium salt electrolyte film between two films respectively forming the positive electrode and negative electrode, consisting of assembling a multilayer structure comprising a current collector support, a film intended to form the positive electrode, a polyether film intended to form the electrolyte and a film intended to form the negative electrode, characterized in that: • the film intended to form the positive electrode and/or the film intended to form the negative electrode are formed of a composite material containing the lithium salt; • the polyether film intended to form the electrolyte does not contain lithium salt and is obtained by extrusion; • the films respectively forming the negative electrode, positive electrode and electrolyte have thicknesses of between 10 μm and 150 pm; • the assembled device is left to stand for sufficient time to allow the lithium salt contained in the material of the positive electrode and/or in the material of the negative electrode to diffuse into the polymer film. • the film intended to form the positive electrode and/or the film intended to form the negative electrode are formed of a composite material containing the lithium salt; • the polyether film intended to form the electrolyte does not contain lithium salt and is obtained by extrusion; • the films respectively forming the negative electrode, positive electrode and electrolyte have thicknesses of between 10 μm and 150 pm; • the assembled device is left to stand for sufficient time to allow the lithium salt contained in the material of the positive electrode and/or in the material of the negative electrode to diffuse into the polymer film.
A method for operating a refrigeration cycle apparatus with standard composition refrigerant configured as a zeotropic refrigerant mixture containing at least first refrigerant and second refrigerant having a higher boiling point than the first refrigerant at a same pressure, the refrigeration cycle apparatus comprising a main circuit in which a compressor, a first heat exchanger, an expansion valve, and a second heat exchanger are sequentially connected, and a component separation circuit connected to the main circuit, the first refrigerant having a property of disproportionation, the method comprising: separating and storing, by the component separation circuit, from the main circuit, mixed refrigerant containing the first refrigerant having a higher composition ratio than in the standard composition refrigerant in an operation of a separation-storage mode separating components of the standard composition refrigerant, characterized by activating, by the component separation circuit, the separation-storage mode at least when a temperature or a pressure of the refrigerant discharged from the compressor is higher than a temperature or a pressure that causes disproportionation of the first refrigerant. separating and storing, by the component separation circuit, from the main circuit, mixed refrigerant containing the first refrigerant having a higher composition ratio than in the standard composition refrigerant in an operation of a separation-storage mode separating components of the standard composition refrigerant, characterized by activating, by the component separation circuit, the separation-storage mode at least when a temperature or a pressure of the refrigerant discharged from the compressor is higher than a temperature or a pressure that causes disproportionation of the first refrigerant.
A fuel cell stack formed by stacking a plurality of power generation units in a stacking direction, the power generation units each comprising at least first and second electrolyte electrode assemblies (16a, 16b), and formed by stacking the first electrolyte electrode assembly on a first metal separator, a second metal separator on the first electrolyte electrode assembly, the second electrolyte electrode assembly on the second metal separator, and a third metal separator on the second electrolyte electrode assembly, the first and second electrolyte electrode assembly (16a, 16b) each comprising a pair of electrodes (30, 32), and an electrolyte interposed between the electrodes (30, 32), first to fourth reactant gas flow fields (34, 42, 48, 54) for allowing predetermined reactant gases to flow along power generation surfaces being formed between the first metal separator and the first electrolyte electrode assembly, between the first electrolyte electrode assembly and the second metal separator, between the second metal separator and the second electrolyte electrode assembly, and between the second electrolyte electrode assembly and the third metal separator, a coolant flow field for allowing a coolant to flow being formed in each space between the power generation units, wherein the first to fourth reactant gas flow fields (34, 42, 48, 54) include a plurality of flow grooves (34a, 42a, 48a, 54a), wherein the same reactant gas flows through the first and third reactant gas flow fields (34, 48), and the number of flow grooves in the first reactant gas flow field is different from the number of flow grooves in the third reactant gas flow field, the first reactant gas flow field and the third reactant gas flow field have the same length, and the flow grooves in the first reactant gas flow field and the flow grooves in the third reactant gas flow field have the same depth, characterized in that each of the plurality of flow grooves (23a, 42a, 48a, 54a) in the first to fourth reactant gas flow fields (34, 42, 48, 54) extends only in one direction of the fuel cell stack and is corrugated in a lateral direction of the fuel cell stack which is orthogonal to the one direction and the stacking direction. wherein the same reactant gas flows through the first and third reactant gas flow fields (34, 48), and the number of flow grooves in the first reactant gas flow field is different from the number of flow grooves in the third reactant gas flow field, the first reactant gas flow field and the third reactant gas flow field have the same length, and the flow grooves in the first reactant gas flow field and the flow grooves in the third reactant gas flow field have the same depth, characterized in that each of the plurality of flow grooves (23a, 42a, 48a, 54a) in the first to fourth reactant gas flow fields (34, 42, 48, 54) extends only in one direction of the fuel cell stack and is corrugated in a lateral direction of the fuel cell stack which is orthogonal to the one direction and the stacking direction.
A micro-fluid supplying device comprising: a fluid supplier suitable for comprising a fluid including a bio-material; a trap chamber which is in connection with the fluid supplier and which is suitable to remove a gas bubble from the fluid supplied from the fluid supplier; and a fluid discharger which is in connection with the trap chamber and is suitable for externally discharging a material supplied from the trap chamber, wherein material properties of a side wall and a bottom of an inside of the trap chamber are different from each other; wherein the trap chamber comprises: an upper plate comprising a groove; a lower plate which covers the groove; and an intermediate membrane which is between the upper plate and the lower plate, and covers the groove, wherein material properties of the upper plate and the intermediate membrane are different from each other; wherein the bottom of the trap chamber is an upper surface of the intermediate membrane, characterized in that the upper surface of the intermediate membrane in the trap chamber has a lower wetting property than the upper plate with respect to the fluid flowing into the trap chamber. a fluid supplier suitable for comprising a fluid including a bio-material; a trap chamber which is in connection with the fluid supplier and which is suitable to remove a gas bubble from the fluid supplied from the fluid supplier; and a fluid discharger which is in connection with the trap chamber and is suitable for externally discharging a material supplied from the trap chamber, an upper plate comprising a groove; a lower plate which covers the groove; and an intermediate membrane which is between the upper plate and the lower plate, and covers the groove,
A lock cylinder comprising a longitudinally extending cylindrical portion in the form of two cylindrical half-housings, a flat portion extending parallel to the upper cylindrical portion with a notch above a bridge-like region accommodating a screw hole for fixing said lock cylinder and a reinforcement member fixed at both sides of said bridge-like region so as to extend at least partially along said flat portion in a longitudinal manner, said reinforcement member being a two-arm closed-loop body, both arms (19, 24) extending longitudinally along said flat portion characterized in that; said reinforcement member comprises at least two non-horizontal line segments the angle between which is suitable for expanding in response to expanding forces, and said at least two non-horizontal line segments form one of the two arms of said closed loop body.
Method, performed by a first apparatus, for positioning or assisting in positioning said first apparatus, said method comprising: - obtaining multiple original identifiers identifying respective first radio networks or nodes thereof; - generating, for each of at least two of said original identifiers, from a respective original identifier a shortened identifier being representative of said respective original identifier and having a smaller size than said respective original identifier; - checking whether a-priori information on a location of said first apparatus is available or is potentially available, - providing said shortened identifiers over a second radio network for positioning or assisting in positioning said first apparatus; - providing at least one original identifier together with said shortened identifiers, if a result of said checking is that a-priori information on a location of said first apparatus is not available or potentially not available; and - providing said shortened identifiers without providing an original identifier, if a result of said checking is that a-priori information on a location of said first apparatus is available or is potentially available. - obtaining multiple original identifiers identifying respective first radio networks or nodes thereof; - generating, for each of at least two of said original identifiers, from a respective original identifier a shortened identifier being representative of said respective original identifier and having a smaller size than said respective original identifier; - checking whether a-priori information on a location of said first apparatus is available or is potentially available, - providing said shortened identifiers over a second radio network for positioning or assisting in positioning said first apparatus; - providing at least one original identifier together with said shortened identifiers, if a result of said checking is that a-priori information on a location of said first apparatus is not available or potentially not available; and - providing said shortened identifiers without providing an original identifier, if a result of said checking is that a-priori information on a location of said first apparatus is available or is potentially available.
A light source, comprising: a socket connection capable of being connected to a source of electricity; a base connected to the socket connection; a heat conductive material affixed to the base, wherein the heat conductive material is substantially transparent or translucent; and an LED element comprising a positive electrical connection, a negative electrical connection and a plurality of LEDs completely embedded in and secured within the heat conductive material which is in a solid state; wherein the plurality of LEDs is in direct contact with the heat conductive material, the plurality of LEDs is connected to each other through connection lines to form an upside-down U shape configuration of LEDs, and each of the plurality of LEDs does not include the use of a heat sink structure, and does not mount to a mounting structure, characterized in that the light source further comprises an enclosure enclosing the heat conductive material, and in that the base has a portion which is embedded in the heat conductive material. a socket connection capable of being connected to a source of electricity; a base connected to the socket connection; a heat conductive material affixed to the base, wherein the heat conductive material is substantially transparent or translucent; and an LED element comprising a positive electrical connection, a negative electrical connection and a plurality of LEDs completely embedded in and secured within the heat conductive material which is in a solid state; wherein the plurality of LEDs is in direct contact with the heat conductive material, the plurality of LEDs is connected to each other through connection lines to form an upside-down U shape configuration of LEDs, and each of the plurality of LEDs does not include the use of a heat sink structure, and does not mount to a mounting structure, characterized in that the light source further comprises an enclosure enclosing the heat conductive material, and in that the base has a portion which is embedded in the heat conductive material.
A communication device, comprising: a transmitter configured to: transmit configuration information indicating subframes in which random access preambles may be transmitted to the communication device; and transmit configuration information indicating subframes in which Sounding Reference Signals (SRSs) may be transmitted to the communication device; and a receiver configured to: receive an SRS mapped to a last portion of a subframe; and receive a random access preamble including a cyclic prefix and being followed by a guard time, wherein when the random access preamble is received in the subframe, the SRS is temporally aligned within the tail end of the guard time. a transmitter configured to: transmit configuration information indicating subframes in which random access preambles may be transmitted to the communication device; and transmit configuration information indicating subframes in which Sounding Reference Signals (SRSs) may be transmitted to the communication device; and transmit configuration information indicating subframes in which random access preambles may be transmitted to the communication device; and transmit configuration information indicating subframes in which Sounding Reference Signals (SRSs) may be transmitted to the communication device; and a receiver configured to: receive an SRS mapped to a last portion of a subframe; and receive a random access preamble including a cyclic prefix and being followed by a guard time, wherein when the random access preamble is received in the subframe, the SRS is temporally aligned within the tail end of the guard time. receive an SRS mapped to a last portion of a subframe; and receive a random access preamble including a cyclic prefix and being followed by a guard time, wherein when the random access preamble is received in the subframe, the SRS is temporally aligned within the tail end of the guard time.