mhurhangee/ep-ind-claims huggingface dataset:
A method for indicating a semi-persistent scheduling, SPS, release by a user equipment, UE, in a wireless communication system, the method comprising: receiving a plurality of SPS configurations for a plurality of logical channels from an evolved NodeB, eNB; and transmitting UE assistance information including an SPS release indication for any one logical channel among the plurality of logical channels to the eNB, wherein a scheduling request, SR, prohibit timer or a SR masking for the any one logical channel are configured without an explicit signaling from the eNB, wherein the UE assistance information includes a logical channel identifier, LCID, for the any one logical channel and the LCID is mapped to a ProSe per-packet priority, PPPP, by a configuration by the eNB or a pre-configuration, wherein the UE assistance information is transmitted only when there is data available for transmission in a sidelink buffer, and wherein the UE assistance information further includes a packet size for the any one logical channel that corresponds to a total amount of the data available for transmission in the sidelink buffer for the any one logical channel. receiving a plurality of SPS configurations for a plurality of logical channels from an evolved NodeB, eNB; and transmitting UE assistance information including an SPS release indication for any one logical channel among the plurality of logical channels to the eNB, wherein a scheduling request, SR, prohibit timer or a SR masking for the any one logical channel are configured without an explicit signaling from the eNB, wherein the UE assistance information includes a logical channel identifier, LCID, for the any one logical channel and the LCID is mapped to a ProSe per-packet priority, PPPP, by a configuration by the eNB or a pre-configuration, wherein the UE assistance information is transmitted only when there is data available for transmission in a sidelink buffer, and wherein the UE assistance information further includes a packet size for the any one logical channel that corresponds to a total amount of the data available for transmission in the sidelink buffer for the any one logical channel.
A tissue treatment device, comprising: an elongate shaft having a distal end; a heating element disposed at the distal end of the elongate shaft, the heating element having a proximal end and a distal end; a first electrical pathway configured to extend between a power source, the proximal end of the heating element, and the distal end of the heating element, and defining a first treatment length extending between the proximal and distal ends (24, 26) of the heating element; a second electrical pathway configured to extend between the power source, the distal end of the heating element, and an intermediate point along the heating element intermediate the proximal and distal ends (24, 26) thereof, and defining a second treatment length extending between the intermediate point and the distal end of the heating element, wherein the intermediate point is offset from a lengthwise center of the heating element; a third electrical pathway configured to extend between the power source, the proximal end of the heating element, and the intermediate point along the heating element, and defining a third treatment length extending between the intermediate point and the proximal end of the heating element, wherein each of the first treatment length, the second treatment length, and the third treatment length is different; and further comprising the power source, wherein the power source is configured to automatically distinguish between the first treatment length, the second treatment length, and the third treatment length, and adjust a level of power delivery for a desired energy output. an elongate shaft having a distal end; a heating element disposed at the distal end of the elongate shaft, the heating element having a proximal end and a distal end; a first electrical pathway configured to extend between a power source, the proximal end of the heating element, and the distal end of the heating element, and defining a first treatment length extending between the proximal and distal ends (24, 26) of the heating element; a second electrical pathway configured to extend between the power source, the distal end of the heating element, and an intermediate point along the heating element intermediate the proximal and distal ends (24, 26) thereof, and defining a second treatment length extending between the intermediate point and the distal end of the heating element, wherein the intermediate point is offset from a lengthwise center of the heating element; a third electrical pathway configured to extend between the power source, the proximal end of the heating element, and the intermediate point along the heating element, and defining a third treatment length extending between the intermediate point and the proximal end of the heating element, wherein each of the first treatment length, the second treatment length, and the third treatment length is different; and further comprising the power source, wherein the power source is configured to automatically distinguish between the first treatment length, the second treatment length, and the third treatment length, and adjust a level of power delivery for a desired energy output.
A mobile microphone assembly comprising: at least one microphone (40, 42) for generating an audio signal output from sound impinging on the at least one microphone, an acceleration sensor for sensing the acceleration acting on the microphone assembly with regard to three orthogonal axes and for providing for an acceleration signal according to the sensed acceleration, and a control unit for judging, by analyzing the acceleration signal, whether there is a drop-down event of the microphone assembly and for interrupting the audio signal output during a drop-down event, wherein the control unit is designed to judge that a drop-down event is terminated and to accordingly terminate interruption of the audio signal output once a release acceleration threshold is found to be not exceeded by the acceleration signal for at least a given release time period. at least one microphone (40, 42) for generating an audio signal output from sound impinging on the at least one microphone, an acceleration sensor for sensing the acceleration acting on the microphone assembly with regard to three orthogonal axes and for providing for an acceleration signal according to the sensed acceleration, and a control unit for judging, by analyzing the acceleration signal, whether there is a drop-down event of the microphone assembly and for interrupting the audio signal output during a drop-down event, wherein the control unit is designed to judge that a drop-down event is terminated and to accordingly terminate interruption of the audio signal output once a release acceleration threshold is found to be not exceeded by the acceleration signal for at least a given release time period.
An absorbent article (600, 700) comprising: a liquid-permeable topsheet positioned at a surface that is contactable with a human body; a non liquid-permeable backsheet positioned at a surface opposite to the topsheet; and an absorbent body provided between the topsheet and the backsheet, wherein: portions of the topsheet along both sides in the longitudinal direction of the absorbent body are folded up to the topsheet side and are adhered to the topsheet, the backsheet covers the absorbent body so as to cover from the bottom face of the absorbent body to side surfaces of the absorbent body, and includes folding portions which are folded up to the topsheet side along both side portions in the longitudinal direction of the absorbent body, a part of each of the folding portions is adhered along the portion of the topsheet which is folded up and adhered to the topsheet, and non liquid-permeable nonwoven fabric gather sheets (605, 705) are adhered to surfaces of the folding portions that face away from the topsheet to form three-dimensional gathers (606, 706). a liquid-permeable topsheet positioned at a surface that is contactable with a human body; a non liquid-permeable backsheet positioned at a surface opposite to the topsheet; and an absorbent body provided between the topsheet and the backsheet, wherein: portions of the topsheet along both sides in the longitudinal direction of the absorbent body are folded up to the topsheet side and are adhered to the topsheet, the backsheet covers the absorbent body so as to cover from the bottom face of the absorbent body to side surfaces of the absorbent body, and includes folding portions which are folded up to the topsheet side along both side portions in the longitudinal direction of the absorbent body, a part of each of the folding portions is adhered along the portion of the topsheet which is folded up and adhered to the topsheet, and non liquid-permeable nonwoven fabric gather sheets (605, 705) are adhered to surfaces of the folding portions that face away from the topsheet to form three-dimensional gathers (606, 706). portions of the topsheet along both sides in the longitudinal direction of the absorbent body are folded up to the topsheet side and are adhered to the topsheet, the backsheet covers the absorbent body so as to cover from the bottom face of the absorbent body to side surfaces of the absorbent body, and includes folding portions which are folded up to the topsheet side along both side portions in the longitudinal direction of the absorbent body, a part of each of the folding portions is adhered along the portion of the topsheet which is folded up and adhered to the topsheet, and non liquid-permeable nonwoven fabric gather sheets (605, 705) are adhered to surfaces of the folding portions that face away from the topsheet to form three-dimensional gathers (606, 706).
A process for manufacturing a thermally conductive thin sheet, which comprises: preparing a thermally conductive composition comprising: preparing a carbon-based filler; adding the carbon-based filler to a solvent mixture of an acetate solvent, an aromatic hydrocarbon solvent, and an alicyclic ketone solvent and stirring them to obtain a first dispersion solution; adding a metallic filler to the first dispersion solution and stirring them to obtain a second dispersion solution; and adding a binder resin to the second dispersion solution and stirring them to obtain a liquid composition. blending an adhesive with the thermally conductive composition, molding the thermally conductive composition in a sheet form, and drying the molded sheet to obtain a thermally conductive adhesive film; forming thermally conductive filler layers on both sides of the thermally conductive adhesive film by coating at least one thermally conductive filler in the form of a solid powder without an adhesive or a binder resin to form a sheet; and rolling the obtained sheet to press the solid particles of the thermally conductive filler to bond each other. preparing a thermally conductive composition comprising: preparing a carbon-based filler; adding the carbon-based filler to a solvent mixture of an acetate solvent, an aromatic hydrocarbon solvent, and an alicyclic ketone solvent and stirring them to obtain a first dispersion solution; adding a metallic filler to the first dispersion solution and stirring them to obtain a second dispersion solution; and adding a binder resin to the second dispersion solution and stirring them to obtain a liquid composition. preparing a carbon-based filler; adding the carbon-based filler to a solvent mixture of an acetate solvent, an aromatic hydrocarbon solvent, and an alicyclic ketone solvent and stirring them to obtain a first dispersion solution; adding a metallic filler to the first dispersion solution and stirring them to obtain a second dispersion solution; and adding a binder resin to the second dispersion solution and stirring them to obtain a liquid composition. blending an adhesive with the thermally conductive composition, molding the thermally conductive composition in a sheet form, and drying the molded sheet to obtain a thermally conductive adhesive film; forming thermally conductive filler layers on both sides of the thermally conductive adhesive film by coating at least one thermally conductive filler in the form of a solid powder without an adhesive or a binder resin to form a sheet; and rolling the obtained sheet to press the solid particles of the thermally conductive filler to bond each other.
A refrigerating and air-conditioning apparatus comprising: a refrigeration cycle being formed by connecting a compressor, a condenser, expansion means, and an evaporator, the refrigeration cycle performing a cooling operation; an evaporator heating device heating the evaporator; a drain pan receiving drain-water from the evaporator and draining the drain-water; a drain-pan heating device heating the drain pan; frost detecting means including a light-emitting element that emits light to the evaporator and a light-receiving element that receives reflected light from the evaporator and outputs a voltage according to the reflected light; a control device controlling on-off operation of the evaporator heating device and the drain-pan heating device, the control device determining a frosting condition on the evaporator from an output of the frost detecting means and individually controlling the evaporator heating device and the drain-pan heating device in accordance with the determination result, the apparatus being characterized in that based on the output of the frost detecting means, if the control device determines that the frosting condition on the evaporator has reached a frosting condition that is at a limit to allow a desired cooling capacity be maintained, the control device turns on the evaporator heating device, and based on the output of the frost detecting means, if the control device determines that the frost formed on the evaporator has started to melt, the control device turns on the drain-pan heating device. a refrigeration cycle being formed by connecting a compressor, a condenser, expansion means, and an evaporator, the refrigeration cycle performing a cooling operation; an evaporator heating device heating the evaporator; a drain pan receiving drain-water from the evaporator and draining the drain-water; a drain-pan heating device heating the drain pan; frost detecting means including a light-emitting element that emits light to the evaporator and a light-receiving element that receives reflected light from the evaporator and outputs a voltage according to the reflected light; a control device controlling on-off operation of the evaporator heating device and the drain-pan heating device, the control device determining a frosting condition on the evaporator from an output of the frost detecting means and individually controlling the evaporator heating device and the drain-pan heating device in accordance with the determination result, the apparatus being characterized in that based on the output of the frost detecting means, if the control device determines that the frosting condition on the evaporator has reached a frosting condition that is at a limit to allow a desired cooling capacity be maintained, the control device turns on the evaporator heating device, and based on the output of the frost detecting means, if the control device determines that the frost formed on the evaporator has started to melt, the control device turns on the drain-pan heating device.
A deboning system for an arm part of bone-in meat, comprising: a clamp which is movable along an endless track and which suspends the arm part of the bone-in meat by holding a tip part of a forearm bone; at least one forearm-bone incision making device which is configured to cut the bone-in meat around the forearm bone of the arm part in a state where the arm part of the bone-in meat is suspended by the clamp; an olecranon incision making device which is configured to cut meat around the olecranon of the arm part of the bone-in meat in a state where the arm part of the bone-in meat is suspended by the clamp; and a forearm-bone separation device which is configured to pull the bone-in meat suspended by the clamp such that the forearm bone and an upper arm bone of the bone-in meat are separated from each other, wherein the at least one forearm-bone incision making device, the olecranon incision making device, and the forearm-bone separation device are respectively disposed along the endless track; wherein the at least one forearm-bone incision making device includes a robot arm disposed along the endless track and a forearm cutter attached to the robot arm, and the olecranon incision making device includes a pair of olecranon cutters (402a, 402b) disposed on both sides of the endless track. a clamp which is movable along an endless track and which suspends the arm part of the bone-in meat by holding a tip part of a forearm bone; at least one forearm-bone incision making device which is configured to cut the bone-in meat around the forearm bone of the arm part in a state where the arm part of the bone-in meat is suspended by the clamp; an olecranon incision making device which is configured to cut meat around the olecranon of the arm part of the bone-in meat in a state where the arm part of the bone-in meat is suspended by the clamp; and a forearm-bone separation device which is configured to pull the bone-in meat suspended by the clamp such that the forearm bone and an upper arm bone of the bone-in meat are separated from each other, wherein the at least one forearm-bone incision making device, the olecranon incision making device, and the forearm-bone separation device are respectively disposed along the endless track; wherein the at least one forearm-bone incision making device includes a robot arm disposed along the endless track and a forearm cutter attached to the robot arm, and the olecranon incision making device includes a pair of olecranon cutters (402a, 402b) disposed on both sides of the endless track.
An alkali metal secondary cell, comprising: an alkali metal negative electrode, which electrochemically oxidizes to release alkali metal ions during discharge and electrochemically reduces alkali metal ions to alkali metal during recharge, wherein the alkali metal negative electrode comprises a material selected from sodium metal and lithium metal; a positive electrode compartment comprising a positive electrode disposed in a liquid positive electrode solution comprising: a metal complex comprising a complex of a metal ion and a chemical selected from (i) plurality of ions selected from halide ions and pseudo-halide ions, (ii) a chelating agent, and (iii) ammonia, wherein the metal ion electrochemically reduces to form metal plating on the positive electrode during discharge, and wherein the metal plating electrochemically oxidizes to form the metal ion during recharge; an alkali metal compound selected from an alkali metal halide and an alkali metal pseudo-halide; and a solvent; and an alkali metal ion conductive electrolyte membrane that separates the alkali metal negative electrode from the liquid positive electrode solution, wherein the alkali metal ion conductive electrolyte membrane is selected from a sodium ion conductive electrolyte membrane and a lithium ion conductive membrane. an alkali metal negative electrode, which electrochemically oxidizes to release alkali metal ions during discharge and electrochemically reduces alkali metal ions to alkali metal during recharge, wherein the alkali metal negative electrode comprises a material selected from sodium metal and lithium metal; a positive electrode compartment comprising a positive electrode disposed in a liquid positive electrode solution comprising: a metal complex comprising a complex of a metal ion and a chemical selected from (i) plurality of ions selected from halide ions and pseudo-halide ions, (ii) a chelating agent, and (iii) ammonia, wherein the metal ion electrochemically reduces to form metal plating on the positive electrode during discharge, and wherein the metal plating electrochemically oxidizes to form the metal ion during recharge; an alkali metal compound selected from an alkali metal halide and an alkali metal pseudo-halide; and a solvent; and a metal complex comprising a complex of a metal ion and a chemical selected from (i) plurality of ions selected from halide ions and pseudo-halide ions, (ii) a chelating agent, and (iii) ammonia, wherein the metal ion electrochemically reduces to form metal plating on the positive electrode during discharge, and wherein the metal plating electrochemically oxidizes to form the metal ion during recharge; an alkali metal compound selected from an alkali metal halide and an alkali metal pseudo-halide; and a solvent; and an alkali metal ion conductive electrolyte membrane that separates the alkali metal negative electrode from the liquid positive electrode solution, wherein the alkali metal ion conductive electrolyte membrane is selected from a sodium ion conductive electrolyte membrane and a lithium ion conductive membrane.
A multi-link device, MLD (110, 120), for operation in a wireless fidelity, Wi-Fi, system, wherein the MLD (110, 120) comprises a medium access control, MAC, Layer Management entity, MLME, and a station management entity, SME, comprising a processor, configured to: indicate, by the SME, a selected link identity, ID, to the MLME, wherein the selected link ID indicates the link being used for frame exchange between an access point, AP, affiliated with AP MLD and non-AP STA affiliated with non-AP MLD, and, a transceiver, configured to: exchange one or more frames through the link indicated by the selected link ID, wherein the selected link ID is indicated in the following management services provided by the MLME to the SME: authenticate, deauthenticate, associate, reassociate, disassociate, wherein the selected link ID is comprised in a common part of a basic variant multi-link element, MLE, and wherein the selected link ID is 4 bits. indicate, by the SME, a selected link identity, ID, to the MLME, wherein the selected link ID indicates the link being used for frame exchange between an access point, AP, affiliated with AP MLD and non-AP STA affiliated with non-AP MLD, and, a transceiver, configured to: exchange one or more frames through the link indicated by the selected link ID, wherein the selected link ID is indicated in the following management services provided by the MLME to the SME: authenticate, deauthenticate, associate, reassociate, disassociate, wherein the selected link ID is comprised in a common part of a basic variant multi-link element, MLE, and wherein the selected link ID is 4 bits. authenticate, deauthenticate, associate, reassociate, disassociate, wherein the selected link ID is comprised in a common part of a basic variant multi-link element, MLE, and wherein the selected link ID is 4 bits.