mhurhangee/ep-ind-claims huggingface dataset:
A hybrid automatic repeat request,HARQ, feedback indication method, performed by a base station, the method comprising: sending signaling for triggering dynamic HARQ feedback to a terminal; wherein the signaling for triggering dynamic HARQ feedback comprises radio resource control, RRC, signaling or media access control, MAC, control element, CE; adding a timing relationship between a time domain unit where current downlink data is located and a time domain unit for an uplink HARQ feedback of the current downlink data in control information; and sending the current downlink data and the control information added with the timing relationship to the terminal; wherein the control information is downlink control information,DCI, (S202, S203), the timing relationship is configured in an information domain of the DCI, the information domain is configured at a fixed location or a configurable location in the DCI, and a length of the information domain is fixed or configurable. sending signaling for triggering dynamic HARQ feedback to a terminal; wherein the signaling for triggering dynamic HARQ feedback comprises radio resource control, RRC, signaling or media access control, MAC, control element, CE; adding a timing relationship between a time domain unit where current downlink data is located and a time domain unit for an uplink HARQ feedback of the current downlink data in control information; and sending the current downlink data and the control information added with the timing relationship to the terminal; wherein the control information is downlink control information,DCI, (S202, S203), the timing relationship is configured in an information domain of the DCI, the information domain is configured at a fixed location or a configurable location in the DCI, and a length of the information domain is fixed or configurable.
A reactor, comprising: a first inlet for a first stream including liquid sulfur containing polysulfides and dissolved hydrogen sulfide; a second inlet for a second stream of an inert gas or a low oxygen- containing gas containing less than 15 vol% oxygen; and a retained catalyst structure arranged and disposed to facilitate contact between the first stream, the second stream, and the retained catalyst structure; wherein the first inlet and the second inlet are configured for countercurrent flow of the first and second streams through the retained catalyst structure; wherein the retained catalyst structure comprises a plurality of spaced-apart surfaces, with a distance between adjacent spaced-apart surface of at least 1 mm; wherein the second inlet includes apertures corresponding in size to flow openings in the retained catalyst structure wherein the amount of catalyst is sufficient to increase the rate of decomposition of the polysulfides and facilitate removal of hydrogen sulfide produced by decomposing polysulfides and hydrogen sulfide present in the liquid sulfur of the first stream with the second stream and wherein the reactor is configured to operate at a pressure range of 14 kPa [2 psig] to 1034 kPa [150 psig]. a first inlet for a first stream including liquid sulfur containing polysulfides and dissolved hydrogen sulfide; a second inlet for a second stream of an inert gas or a low oxygen- containing gas containing less than 15 vol% oxygen; and a retained catalyst structure arranged and disposed to facilitate contact between the first stream, the second stream, and the retained catalyst structure; wherein the first inlet and the second inlet are configured for countercurrent flow of the first and second streams through the retained catalyst structure; wherein the retained catalyst structure comprises a plurality of spaced-apart surfaces, with a distance between adjacent spaced-apart surface of at least 1 mm; wherein the second inlet includes apertures corresponding in size to flow openings in the retained catalyst structure wherein the amount of catalyst is sufficient to increase the rate of decomposition of the polysulfides and facilitate removal of hydrogen sulfide produced by decomposing polysulfides and hydrogen sulfide present in the liquid sulfur of the first stream with the second stream and wherein the reactor is configured to operate at a pressure range of 14 kPa [2 psig] to 1034 kPa [150 psig].
A reciprocating mower unit configured to be driven by a drive unit via a transmission shaft arranged within a transmission tube, the reciprocating mower unit comprising: a housing; a reduction gear arranged within the housing, the reduction gear being configured to receive an input rotary motion from the transmission shaft at a first, relatively higher, rotation speed, and deliver an output rotary motion to a gear output shaft at a second, relatively lower, rotation speed; and a crank mechanism arranged within the housing, the crank mechanism being configured to convert the output rotary motion of the gear output shaft to an oscillating motion of a pair of mowing blades (32a, 32b) oscillating in mutual anti-phase about a common oscillation axis, wherein the reciprocating mower unit is characterized in comprising an input shaft for receiving said input rotary motion from the transmission shaft, wherein the input shaft is provided with a coupling interface for releasably coupling the input shaft to the transmission shaft. a housing; a reduction gear arranged within the housing, the reduction gear being configured to receive an input rotary motion from the transmission shaft at a first, relatively higher, rotation speed, and deliver an output rotary motion to a gear output shaft at a second, relatively lower, rotation speed; and a crank mechanism arranged within the housing, the crank mechanism being configured to convert the output rotary motion of the gear output shaft to an oscillating motion of a pair of mowing blades (32a, 32b) oscillating in mutual anti-phase about a common oscillation axis, wherein the reciprocating mower unit is characterized in comprising an input shaft for receiving said input rotary motion from the transmission shaft, wherein the input shaft is provided with a coupling interface for releasably coupling the input shaft to the transmission shaft.
A securing system (1a, 1b, 1c, 1d, 1e) for attaching a module unit (20, 21) to a wall in a cargo or a back space in a service vehicle, said securing system (1a, 1b, 1c, 1d, 1e) comprising - a bracket adapted to be arranged to a securing rail (25a, 25b, 25c, 25d) on said wall, - a connecting element (10a, 10b, 10c, 10d, 10e) adapted to be connected to said bracket and to said module unit (20, 21), and - a securing element (6a, 7a) adapted to fix said connecting element (10a, 10b, 10c, 10d, 10e) to said bracket through an opening in said bracket and an opening in said connecting element (10a, 10b, 10c, 10d, 10e), and each opening (9a, 12a) in said bracket and said connecting element (10a, 10b, 10c, 10d, 10e) is an elongated opening (9a, 12a) for adjustable positioning of the connecting element (10a, 10b, 10c, 10d, 10e) relative to said bracket, characterized in that said bracket comprises an anti-rotational portion extending in an angle to a surface of said bracket which is adapted to be arranged to said securing rail, and said anti-rotational portion is adapted to be fitted into an opening of said securing rail (25a, 25b, 25c, 25d). - a bracket adapted to be arranged to a securing rail (25a, 25b, 25c, 25d) on said wall, - a connecting element (10a, 10b, 10c, 10d, 10e) adapted to be connected to said bracket and to said module unit (20, 21), and - a securing element (6a, 7a) adapted to fix said connecting element (10a, 10b, 10c, 10d, 10e) to said bracket through an opening in said bracket and an opening in said connecting element (10a, 10b, 10c, 10d, 10e), and each opening (9a, 12a) in said bracket and said connecting element (10a, 10b, 10c, 10d, 10e) is an elongated opening (9a, 12a) for adjustable positioning of the connecting element (10a, 10b, 10c, 10d, 10e) relative to said bracket,
A method for processing a packet, comprising: receiving the packet by a physical network interface, wherein the packet comprises a destination address; determining a target virtual network interface card 'VNIC' using the destination address and a virtual switching table 'VST', wherein the VST is located on a network express manager 'NEM' and the target VNIC is located on a target computer operatively connected to the NEM via a chassis interconnect; transferring the packet to a receive ring 'RR' associated with the target VNIC, wherein the RR is located on the NEM; determining, by the target VNIC, that the packet is in the RR; determining, by the target VNIC, that the packet is to be processed using an offload engine; transferring the packet to offload memory located on an offload computer, wherein the offload computer is operatively connected to the NEM via the chassis interconnect and wherein the offload engine is executing on the offload computer; processing the packet by the offload engine to obtain a processed packet; and transferring the processed packet to memory of the target computer using the chassis interconnect. receiving the packet by a physical network interface, wherein the packet comprises a destination address; determining a target virtual network interface card 'VNIC' using the destination address and a virtual switching table 'VST', wherein the VST is located on a network express manager 'NEM' and the target VNIC is located on a target computer operatively connected to the NEM via a chassis interconnect; transferring the packet to a receive ring 'RR' associated with the target VNIC, wherein the RR is located on the NEM; determining, by the target VNIC, that the packet is in the RR; determining, by the target VNIC, that the packet is to be processed using an offload engine; transferring the packet to offload memory located on an offload computer, wherein the offload computer is operatively connected to the NEM via the chassis interconnect and wherein the offload engine is executing on the offload computer; processing the packet by the offload engine to obtain a processed packet; and transferring the processed packet to memory of the target computer using the chassis interconnect.
A carrier body for a brake lining of a disk brake, wherein the carrier body has a friction lining carrier plate for receiving a friction lining as well as at least one first damper mass rigidly connected to the friction lining carrier plate for changing the vibration, wherein the first damper mass has a first side surface, wherein a first pin-shaped projection protrudes from the first side surface of the damper mass, wherein the first pin-shaped projection has a head which is arranged in the region of the front side of the pin-shaped projection facing away from the first side surface of the first damper mass, wherein the friction lining carrier plate has a first hole, characterized in that the first pin-shaped projection is inserted into the first hole in such a way that the head of the first pin-shaped projection protrudes out of the first hole and rests against a first chamfer partially in the region of a first edge of the first hole.
A method carried out at a call handling entity configured to handle an emergency call of a mobile entity in a cellular network: - determining (S51, S91) that a call from the mobile entity is an emergency call, - determining a location of the mobile entity, - determining (S53, S93) at least one sensor (80-83, 91, 92) located in an environment of the mobile entity close to the mobile entity but not connected to the mobile entity, - determining whether the at least one sensor is activated to collect sensor data from an environment in which at least one sensor is located, wherein when the at least one sensor is not activated, - requesting (S54, S95) an activation of the at least one sensor, - requesting the collection of sensor data at the at least one sensor, and - requesting a transmission of the collected sensor data to an emergency call center handling the emergency call. - determining (S51, S91) that a call from the mobile entity is an emergency call, - determining a location of the mobile entity, - determining (S53, S93) at least one sensor (80-83, 91, 92) located in an environment of the mobile entity close to the mobile entity but not connected to the mobile entity, - determining whether the at least one sensor is activated to collect sensor data from an environment in which at least one sensor is located, wherein when the at least one sensor is not activated, - requesting (S54, S95) an activation of the at least one sensor, - requesting the collection of sensor data at the at least one sensor, and - requesting a transmission of the collected sensor data to an emergency call center handling the emergency call. - requesting (S54, S95) an activation of the at least one sensor, - requesting the collection of sensor data at the at least one sensor, and - requesting a transmission of the collected sensor data to an emergency call center handling the emergency call.
Powdered vinegar having a water content of 4-20 wt.% and comprising free vinegar derived acid and neutralized vinegar derived acid in an amount of 80-100 % of the dry matter that is contained in the powdered vinegar, wherein more than 95 % of the free vinegar derived acid and the neutralized vinegar derived acid is acetic acid in free and neutralized form and wherein the content of free vinegar derived acid is 3.5-15.0 wt.% of the powdered vinegar.
A communication system for providing feedback data for at least one water consuming device comprising: at least one collection device configured to capture user data describing a biological characteristic of a user; a data collection interface communicably coupled to the at least one collection device; a controller comprising a processor and memory, wherein the controller is communicably coupled to the data collection interface and an output interface, and wherein the controller is configured to: receive, via the data collection interface from the at least one collection device, the user data describing the biological characteristic of the user; determine feedback data corresponding to water flow from the at least one water consuming device based on the biological characteristic of the user described by the user data from the at least one collection device; and provide, via the output interface to the at least one water consuming device, the feedback data for controlling the water flow from the at least one water consuming device based on the user data; characterised in that the at least one collection device is arranged separately from the at least one water consuming device. at least one collection device configured to capture user data describing a biological characteristic of a user; a data collection interface communicably coupled to the at least one collection device; a controller comprising a processor and memory, wherein the controller is communicably coupled to the data collection interface and an output interface, and wherein the controller is configured to: receive, via the data collection interface from the at least one collection device, the user data describing the biological characteristic of the user; determine feedback data corresponding to water flow from the at least one water consuming device based on the biological characteristic of the user described by the user data from the at least one collection device; and provide, via the output interface to the at least one water consuming device, the feedback data for controlling the water flow from the at least one water consuming device based on the user data; receive, via the data collection interface from the at least one collection device, the user data describing the biological characteristic of the user; determine feedback data corresponding to water flow from the at least one water consuming device based on the biological characteristic of the user described by the user data from the at least one collection device; and provide, via the output interface to the at least one water consuming device, the feedback data for controlling the water flow from the at least one water consuming device based on the user data; characterised in that the at least one collection device is arranged separately from the at least one water consuming device.
Process for the manufacture of polyamide from at least one diacid, from at least one diamine and from at least one lactam, comprising the following stages: a) concentration, by evaporation of water, of an aqueous solution of salt of diacid and diamine obtained by mixing at least one diacid and at least one diamine, b) polymerization, under pressure, of the concentrated aqueous solution, c) reduction in pressure of the polymerization medium in order to remove the residual water by evaporation, d) optionally maintenance at temperature of the polymer, at atmospheric pressure or under reduced pressure, in order to obtain the desired degree of polymerization, e) optionally forming of the polymer obtained, characterized in that the lactam is introduced into the solution or the polymerization medium at the end of stage a) or after stage a); and in that the proportion of monomer units resulting from the lactam in the final polymer, by weight with respect to the weight of final polymer, is between 3 and 20%. a) concentration, by evaporation of water, of an aqueous solution of salt of diacid and diamine obtained by mixing at least one diacid and at least one diamine, b) polymerization, under pressure, of the concentrated aqueous solution, c) reduction in pressure of the polymerization medium in order to remove the residual water by evaporation, d) optionally maintenance at temperature of the polymer, at atmospheric pressure or under reduced pressure, in order to obtain the desired degree of polymerization, e) optionally forming of the polymer obtained,
A processing system comprising an automatic lathe and a bar feeder, wherein a lengthy work such as a bar or a lengthy rod member is pushed by the bar feeder having a feed rod having a finger chuck for holding the work at a rear extremity thereof in order to sequentially feed the work to the automatic lathe, characterised in that the processing system can also process work in the form of a raw blank, wherein a raw blank is a work formed into a predetermined shape in advance as a short-length work, wherein the feed rod of the bar feeder also serves as a work pushing means for pushing a work in the form of a raw blank into a hollow spindle of the automatic lathe having a chuck at a front extremity thereof from a rear extremity thereof; wherein the processing system further comprises a work supplying means located between the automatic lathe and the bar feeder for individually supplying the work in the form of a raw blank to the work pushing means; wherein the work in the form of a raw blank supplied from said work supplying means can be pushed into said spindle by said work pushing means; wherein said work pushing means is provided with a holding means in the form of the finger chuck of the feed rod for holding the work in the form of a raw blank at a rear edge thereof; said work supplying means is provided with a work moving means for moving the work in the form of a raw blank so that said holding means holds the work; and the work in the form of a raw blank is supplied to said spindle while being held by said holding means; wherein the work supplying means comprises a reciprocating table provided to be movable forward and backward in a horizontal direction orthogonal to an axial line of the spindle, wherein said reciprocating table is provided with a work receiver for receiving work in the form of a raw blank, a work moving means in the form of a pusher for pushing a work in the form of a raw blank out of the work receiver and into the finger chuck, and a guide member for guiding the feed rod along the axial direction of the spindle.
An enteral tube for placement within a patient, comprising: a tube having a distal end portion for placement within a patient and a proximal end portion, said tube having a lumen increasing in cross section along at least a portion of the distal end portion toward a distal end.
Compositions comprising at least 0.1% by weight and at most 10.0% by weight of carbamato-functionalized organopolysiloxanes containing an average per molecule of at least one carbamato-functional Y group of the formula -R 4 -[NX-R 5 -] n NX-H where X is the same or different and is a hydrogen atom or a Z radical of the formula -CO-O-CHR 6 -CH 2 -OH or -CO-O-CH 2 -CHR 6 -OH where an average of at least one X radical per molecule is a Z radical, where R 4 is the same or different and is a divalent, Si-C-bonded hydrocarbyl radical having 1 to 18 carbon atoms, R 5 is the same or different and is a divalent hydrocarbyl radical having 1 to 6 carbon atoms, R 6 is the same or different and is a hydrogen atom or a monovalent hydrocarbyl radical having 1 to 36 carbon atoms, where one or more -CH 2 -groups may be replaced by heteroatoms, preferably by -O- or -S-, n is 1, 2, 3 or 4, at least 1% by weight and at most 40% by weight of cationic surfactants and at least 30% by weight and at most 97% by weight of water, based in each case on the total weight of the aqueous compositions. at least 0.1% by weight and at most 10.0% by weight of carbamato-functionalized organopolysiloxanes containing an average per molecule of at least one carbamato-functional Y group of the formula -R 4 -[NX-R 5 -] n NX-H where X is the same or different and is a hydrogen atom or a Z radical of the formula -CO-O-CHR 6 -CH 2 -OH or -CO-O-CH 2 -CHR 6 -OH where an average of at least one X radical per molecule is a Z radical, where R 4 is the same or different and is a divalent, Si-C-bonded hydrocarbyl radical having 1 to 18 carbon atoms, R 5 is the same or different and is a divalent hydrocarbyl radical having 1 to 6 carbon atoms, R 6 is the same or different and is a hydrogen atom or a monovalent hydrocarbyl radical having 1 to 36 carbon atoms, where one or more -CH 2 -groups may be replaced by heteroatoms, preferably by -O- or -S-, n is 1, 2, 3 or 4, X is the same or different and is a hydrogen atom or a Z radical of the formula -CO-O-CHR 6 -CH 2 -OH or -CO-O-CH 2 -CHR 6 -OH where an average of at least one X radical per molecule is a Z radical, where R 4 is the same or different and is a divalent, Si-C-bonded hydrocarbyl radical having 1 to 18 carbon atoms, R 5 is the same or different and is a divalent hydrocarbyl radical having 1 to 6 carbon atoms, R 6 is the same or different and is a hydrogen atom or a monovalent hydrocarbyl radical having 1 to 36 carbon atoms, where one or more -CH 2 -groups may be replaced by heteroatoms, preferably by -O- or -S-, n is 1, 2, 3 or 4, at least 1% by weight and at most 40% by weight of cationic surfactants and at least 30% by weight and at most 97% by weight of water, based in each case on the total weight of the aqueous compositions.
Gas distribution assembly comprising a gas cylinder, a tap unit attached to the gas cylinder and a protective casing arranged around said tap unit, said tap unit comprising a device for indicating pressure or content and a rotating wheel, that can be operated by an operator, for controlling the gas flow, the protective casing comprising a first opening arranged on the upper portion of the protective casing, wherein the protective casing further comprises a carrying handle connected to the casing by one or more supporting brackets, with the carrying handle being arranged on the casing, and characterised in that within the first opening is housed the pressure or content indicating device of the cylinder such that the pressure or content indicating device is positioned between the carrying handle and the tap unit carrying said pressure or content indicating device.