mhurhangee/ep-ind-claims huggingface dataset:
A refrigerant cycle system comprising: a refrigerant cycle including a heat source unit, a first utilization unit group, and a second utilization unit group; a first power feed unit that differs from the heat source unit, and that is configured to, when a power source (21a, 21b, 21c) of each utilization unit (20a, 20b, 20c) of the first utilization unit group has been interrupted, feed auxiliary power to the utilization unit of which the power source has been interrupted; a second power feed unit that differs from the heat source unit, and that is configured to, when a power source (21d, 21e, 21f) of each utilization unit (20d, 20e, 20f) of the second utilization unit group has been interrupted, feed auxiliary power to the utilization unit of which the power source has been interrupted; a first transmission line that connects the heat source unit and the first power feed unit to each other; and a second transmission line that connects the first power feed unit and the second power feed unit to each other, wherein the heat source unit, the first power feed unit, and the second power feed unit are connected in series by the first transmission line and the second transmission line such that the second power feed unit is connected to the heat source unit via the first power feed unit, characterized in that the second transmission line includes a plurality of transmission lines (42a, 42d) such that the first power feed unit, the utilization unit included in the first utilization unit group, and the second power feed unit are connected in sequential order. a refrigerant cycle including a heat source unit, a first utilization unit group, and a second utilization unit group; a first power feed unit that differs from the heat source unit, and that is configured to, when a power source (21a, 21b, 21c) of each utilization unit (20a, 20b, 20c) of the first utilization unit group has been interrupted, feed auxiliary power to the utilization unit of which the power source has been interrupted; a second power feed unit that differs from the heat source unit, and that is configured to, when a power source (21d, 21e, 21f) of each utilization unit (20d, 20e, 20f) of the second utilization unit group has been interrupted, feed auxiliary power to the utilization unit of which the power source has been interrupted; a first transmission line that connects the heat source unit and the first power feed unit to each other; and a second transmission line that connects the first power feed unit and the second power feed unit to each other, wherein the heat source unit, the first power feed unit, and the second power feed unit are connected in series by the first transmission line and the second transmission line such that the second power feed unit is connected to the heat source unit via the first power feed unit, characterized in that the second transmission line includes a plurality of transmission lines (42a, 42d) such that the first power feed unit, the utilization unit included in the first utilization unit group, and the second power feed unit are connected in sequential order.
An irradiation-sterilized, uncured adhesive composition comprising (i) more than 99 % by weight of the adhesive composition of 2-octyl cyanoacrylate monomer, (ii) 100 to 1000 ppm by weight of the adhesive composition of an 18-crown-6 crown ether speed enhancer, (iii) butylated hydroxyl anisole, and (iv) sulfur dioxide. (i) more than 99 % by weight of the adhesive composition of 2-octyl cyanoacrylate monomer, (ii) 100 to 1000 ppm by weight of the adhesive composition of an 18-crown-6 crown ether speed enhancer, (iii) butylated hydroxyl anisole, and (iv) sulfur dioxide.
A method for signal transmission, the method comprising: detecting, by a terminal device, a first SSB, Synchronization signal block, in a plurality of candidate time-frequency resources of the first SSB within a first period on a first carrier, to determine a first time-frequency resource where a network device sends the first SSB, wherein the first time-frequency resource is one of the plurality of candidate time-frequency resources, wherein the first SSB is in a SSB group; receiving, by the terminal device, the first SSB in the first time-frequency resource; wherein the plurality of candidate time-frequency resources comprises M time-frequency resources, the first period comprises M sub-periods, each of the M sub-periods comprises one time-frequency resource in the M time-frequency resources, and the M sub-periods corresponds to the M time-frequency resources one by one; wherein each SSB in the SSB group is configured with a time-frequency resource for transmitting the each SSB in each sub-period; wherein a maximum quantity of transmission times of each SSB in the SSB group is 1 within the first period; wherein the method further comprises: not detecting, by the terminal device, the first SSB in a time-frequency resource later than the first time-frequency resource within the plurality of candidate time-frequency resources, wherein the first time-frequency resource is a time-frequency resource, where the terminal device detects the first SSB for a first time, within the plurality of candidate time-frequency resources. detecting, by a terminal device, a first SSB, Synchronization signal block, in a plurality of candidate time-frequency resources of the first SSB within a first period on a first carrier, to determine a first time-frequency resource where a network device sends the first SSB, wherein the first time-frequency resource is one of the plurality of candidate time-frequency resources, wherein the first SSB is in a SSB group; receiving, by the terminal device, the first SSB in the first time-frequency resource; wherein the plurality of candidate time-frequency resources comprises M time-frequency resources, the first period comprises M sub-periods, each of the M sub-periods comprises one time-frequency resource in the M time-frequency resources, and the M sub-periods corresponds to the M time-frequency resources one by one; wherein each SSB in the SSB group is configured with a time-frequency resource for transmitting the each SSB in each sub-period; wherein a maximum quantity of transmission times of each SSB in the SSB group is 1 within the first period; wherein the method further comprises: not detecting, by the terminal device, the first SSB in a time-frequency resource later than the first time-frequency resource within the plurality of candidate time-frequency resources, wherein the first time-frequency resource is a time-frequency resource, where the terminal device detects the first SSB for a first time, within the plurality of candidate time-frequency resources.
A sensor pixel 100 comprising: a node; a sensor, a charge storage, a reset block having a reset input, a readout block, and a charge leakage gain adjustment block for the node including a diode connected transistor (T D) biased by and for discharge to a controllable low voltage and including a transistor (T 3) having a gain adjustment control input, the gain adjustment control input and the controllable low voltage both being controllable at a leakage time (T L) to effect charge leakage gain adjustment from the node, wherein the sensor, the charge storage, the reset block, the readout block, and the charge leakage gain adjustment block are each operatively connected to the node. a node; a sensor, a charge storage, a reset block having a reset input, a readout block, and a charge leakage gain adjustment block for the node including a diode connected transistor (T D) biased by and for discharge to a controllable low voltage and including a transistor (T 3) having a gain adjustment control input, the gain adjustment control input and the controllable low voltage both being controllable at a leakage time (T L) to effect charge leakage gain adjustment from the node, wherein the sensor, the charge storage, the reset block, the readout block, and the charge leakage gain adjustment block are each operatively connected to the node.
A radio frequency, RF, system with tunable filtering, the RF system comprising: a semiconductor die including a first controllable capacitor formed thereon; and a first circuit board configured to attach to a second circuit board, wherein the first circuit board includes a first inductor structure formed therein from metallization of the first circuit board, the first inductor structure configured to resonate with the first controllable capacitor to provide a tunable filter, characterized in that the first inductor structure is shielded from the semiconductor die by an inductor shielding structure formed at least in part from the metallization of the first circuit board. a semiconductor die including a first controllable capacitor formed thereon; and a first circuit board configured to attach to a second circuit board, wherein the first circuit board includes a first inductor structure formed therein from metallization of the first circuit board, the first inductor structure configured to resonate with the first controllable capacitor to provide a tunable filter, characterized in that the first inductor structure is shielded from the semiconductor die by an inductor shielding structure formed at least in part from the metallization of the first circuit board.
Thermal flow sensor for determining the temperature and the flow velocity of a flowing medium, wherein said sensor comprises: - a substrate with a first thermal resistance value, with a surface facing towards the medium and with a surface facing away from the medium; - a functional element, which is designed to determine the temperature of the medium and to influence the temperature of the medium, wherein the functional element is applied to the surface of the substrate facing towards the medium, wherein a passivation layer with a second thermal resistance value is applied to the functional element, wherein the first thermal resistance value of the substrate is essentially greater by a factor of at least 10 than the second thermal resistance value of the passivation layer, and wherein a weldable layer is applied to the passivation layer; - a support element in which the substrate with the applied functional element is introduced, wherein the support element is in contact with the medium and the functional element is applied to the support element by means of the weldable layer; and - a control and evaluation unit, which is designed to determine - in a first time interval - the temperature of the medium by means of the functional element and to determine - in a second time interval following the first time interval - the flow velocity of the medium. - a substrate with a first thermal resistance value, with a surface facing towards the medium and with a surface facing away from the medium; - a functional element, which is designed to determine the temperature of the medium and to influence the temperature of the medium, wherein the functional element is applied to the surface of the substrate facing towards the medium, wherein a passivation layer with a second thermal resistance value is applied to the functional element, wherein the first thermal resistance value of the substrate is essentially greater by a factor of at least 10 than the second thermal resistance value of the passivation layer, and wherein a weldable layer is applied to the passivation layer; wherein the first thermal resistance value of the substrate is essentially greater by a factor of at least 10 than the second thermal resistance value of the passivation layer, and wherein a weldable layer is applied to the passivation layer; - a support element in which the substrate with the applied functional element is introduced, wherein the support element is in contact with the medium and the functional element is applied to the support element by means of the weldable layer; and - a control and evaluation unit, which is designed to determine - in a first time interval - the temperature of the medium by means of the functional element and to determine - in a second time interval following the first time interval - the flow velocity of the medium.
A protein: (a) comprising an amino acid sequence represented by SEQ ID NO: 2; or (b) comprising the amino acid sequence represented by SEQ ID NO: 2 wherein one to five amino acids are deleted or SEQ ID NO: 2 wherein one to five amino acids are added, and having a positive regulating capability of the transcription of genes for mannan hydrolases or cellulose hydrolases. (a) comprising an amino acid sequence represented by SEQ ID NO: 2; or (b) comprising the amino acid sequence represented by SEQ ID NO: 2 wherein one to five amino acids are deleted or SEQ ID NO: 2 wherein one to five amino acids are added, and having a positive regulating capability of the transcription of genes for mannan hydrolases or cellulose hydrolases.
A communication apparatus comprising: data transmitting means for transmitting a single first physical frame including a first data frame with a first traffic identifier for identifying a first priority of the first data frame and a second data frame with a second traffic identifier for identifying a second priority of the second data frame, wherein each of the first data frame and the second data frame is one of media access control frames and the first traffic identifier and the second traffic identifier are different from each other; and control frame transmitting means for transmitting a single second physical frame (290, 600) including a single block acknowledgement request frame, the block acknowledgement request frame including a first acknowledgement request information and a second acknowledgement request information after transmission of the first physical frame, the first acknowledgement request information being for requesting transmission of a first acknowledgement information, the second acknowledgement request information being for requesting transmission of a second acknowledgement information, the first acknowledgement information corresponding to the first traffic identifier, the second acknowledgement information corresponding to the second traffic identifier, wherein the block acknowledgement request frame is one of the MAC frames. data transmitting means for transmitting a single first physical frame including a first data frame with a first traffic identifier for identifying a first priority of the first data frame and a second data frame with a second traffic identifier for identifying a second priority of the second data frame, wherein each of the first data frame and the second data frame is one of media access control frames and the first traffic identifier and the second traffic identifier are different from each other; and control frame transmitting means for transmitting a single second physical frame (290, 600) including a single block acknowledgement request frame, the block acknowledgement request frame including a first acknowledgement request information and a second acknowledgement request information after transmission of the first physical frame, the first acknowledgement request information being for requesting transmission of a first acknowledgement information, the second acknowledgement request information being for requesting transmission of a second acknowledgement information, the first acknowledgement information corresponding to the first traffic identifier, the second acknowledgement information corresponding to the second traffic identifier, wherein the block acknowledgement request frame is one of the MAC frames.
A shift power transmission apparatus comprising: an input shaft receiving engine drive force; a hydraulic continuously variable transmission driven by the input shaft; a planetary power transmission section combining the drive force from the input shaft and an output from the hydraulic continuously variable transmission for outputting the combined drive force therefrom; and an output rotary member outputting power to a travel apparatus, wherein the planetary power transmission section and the output rotary member are arranged on a side of the hydraulic continuously variable transmission associated with an engine-coupled side of the input shaft; and wherein the drive force is inputted to the planetary power transmission section from a portion between the engine-coupled side and a hydraulic continuously variable transmission-coupled side of the input shaft; characterized by an input-side clutch mechanism switching the planetary power transmission section between an interlocking-on state and an interlocking-off state with respect to the input shaft; and an output-side clutch mechanism switching the output rotary member between an interlocking-on state and an interlocking-off state with respect to a motor shaft of the hydraulic continuously variable transmission. an input shaft receiving engine drive force; a hydraulic continuously variable transmission driven by the input shaft; a planetary power transmission section combining the drive force from the input shaft and an output from the hydraulic continuously variable transmission for outputting the combined drive force therefrom; and an output rotary member outputting power to a travel apparatus, wherein the planetary power transmission section and the output rotary member are arranged on a side of the hydraulic continuously variable transmission associated with an engine-coupled side of the input shaft; and wherein the drive force is inputted to the planetary power transmission section from a portion between the engine-coupled side and a hydraulic continuously variable transmission-coupled side of the input shaft; characterized by an input-side clutch mechanism switching the planetary power transmission section between an interlocking-on state and an interlocking-off state with respect to the input shaft; and an output-side clutch mechanism switching the output rotary member between an interlocking-on state and an interlocking-off state with respect to a motor shaft of the hydraulic continuously variable transmission.
A method in a policy node configured to handle Internet Protocol version 6, IPv6, traffic flows comprising IPv6 data packets in a communications system, the method comprising: allocating (201, 501) a label-setting identifying a label, a particular IPv6 traffic flow that will pass through a Software Defined Network, SDN,, and one or more destinations (115, 120) for the particular IPv6 traffic flow; transmitting (202, 502) information indicating the label-setting to a SDN Controller, SDNC configured to create a path for the IPv6 traffic flow through the SDN based on the label and said one or more destinations (115, 120) identified by the label-setting; allocating (206, 503) a filter-setting defining that the particular IPv6 traffic flow should be associated with the label; and transmitting (207, 504) information indicating the filter-setting to a classifying node configured to receive the particular IPv6 traffic flow and to associate the particular IPv6 traffic flow with the label. allocating (201, 501) a label-setting identifying a label, a particular IPv6 traffic flow that will pass through a Software Defined Network, SDN,, and one or more destinations (115, 120) for the particular IPv6 traffic flow; transmitting (202, 502) information indicating the label-setting to a SDN Controller, SDNC configured to create a path for the IPv6 traffic flow through the SDN based on the label and said one or more destinations (115, 120) identified by the label-setting; allocating (206, 503) a filter-setting defining that the particular IPv6 traffic flow should be associated with the label; and transmitting (207, 504) information indicating the filter-setting to a classifying node configured to receive the particular IPv6 traffic flow and to associate the particular IPv6 traffic flow with the label.
A method of imaging a specimen using an X-ray imaging apparatus, comprising the following steps: - Providing the specimen on a specimen holder; - Directing a flux of X-rays from a source (Sx) through the specimen and onto an X-ray camera; - Embodying the source as a cluster of component sources (Sc), with a confined angular span relative to the specimen; - Using said camera to record a cumulative, composite image from said component sources; - Mathematically deconvolving said composite image, characterized in that: - The source comprises a body of supporting material (Ss) in which the component sources (Sc) are suspended as discrete metallic bodies, and wherein the distribution of component sources is non-regular; - Component sources are caused to emit X-rays by irradiating them with a charged-particle beam. - Providing the specimen on a specimen holder; - Directing a flux of X-rays from a source (Sx) through the specimen and onto an X-ray camera; - Embodying the source as a cluster of component sources (Sc), with a confined angular span relative to the specimen; - Using said camera to record a cumulative, composite image from said component sources; - Mathematically deconvolving said composite image, - The source comprises a body of supporting material (Ss) in which the component sources (Sc) are suspended as discrete metallic bodies, and wherein the distribution of component sources is non-regular; - Component sources are caused to emit X-rays by irradiating them with a charged-particle beam.
Weighing cell with a weighing system arranged in a housing, a load pick-up, which is arranged outside the housing and which is connected with the weighing system by way of a pick-up axle, and a seal by which the passage of the housing for the pick-up axle can be kept in open state during a weighing process and can be sealed during a cleaning process, characterised in that the seal consists of a rearward sealing edge of the load pick-up, which edge faces the housing and when the seal is closed is sealingly pressed against an abutment surface of the housing, and that an air inlet, which leads into the housing and by way of which a gas for producing an excess pressure in the housing can be conducted from a pressure generating device, is provided.
A biodegradable implant, comprising a magnesium alloy represented by Chemical Formula 1 below comprising based on total weight thereof, 23 wt% or less but exceeding 0 wt% of Ca; from 0.76 wt% to 10 wt% of X; and a remainder of Mg: Mg-Ca-X <Chemical Formula 1> wherein X is Zn.
A manual ceramics cutter with detachable accessories, comprising: a base for supporting the ceramic piece to be cut, a manually actuatable cutting head, guides for moving the cutting head, at least one accessory (4a, 4b) for laterally supporting the ceramic piece to be cut and which is provided with fastening means for fastening to the base in an operative use position, in which the accessory (4a, 4b) is arranged transversely with respect to the base and projects laterally from the base, and magnetic fastening means (11, 42) for fastening the accessory (4a, 4b) to the base in an inoperative or transport position, in which the accessory (4a, 4b) is arranged in a longitudinal direction on the base and does not project practically from the base, wherein the magnetic fastening means comprise at least one pair of magnets and one pair of ferromagnetic bushings fastened to the base of the cutter and the corresponding accessory (4a, 4b), said bushings being dimensioned for receiving the respective magnets therein, characterised in that the accessory (4a, 4b) is detachable, the magnets are fastened to an upper surface of the base by means of screws, and between the magnets and the base elastic stops are installed that form around the magnets supporting areas configured for supporting the bushings of the accessory (4a, 4b) when the accessory (4a, 4b) is installed on the base in the inoperative or transport position.