mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a source node of a multicast flow, wherein the multicast flow uses a shared tree to map out multicast transmission routes to multiple destination nodes of the multicast flow, wherein multiple flows, among which the multicast flow is one multicast flow, share the shared tree to multicast data frames, wherein the method comprises the steps of: ∘ advertising a sub-type-length-value, sub-TLV , to the multiple destination nodes, the sub-TLV comprising: • a shared tree field that, when being set to a first specific value, indicates that a Backbone Service Instance Identifier, I-SID, endpoint uses the shared tree for multicasting data frames, and • a tie-break mask that indicates the shared tree used at the I-SID endpoint. ∘ advertising a sub-type-length-value, sub-TLV , to the multiple destination nodes, the sub-TLV comprising: • a shared tree field that, when being set to a first specific value, indicates that a Backbone Service Instance Identifier, I-SID, endpoint uses the shared tree for multicasting data frames, and • a tie-break mask that indicates the shared tree used at the I-SID endpoint. • a shared tree field that, when being set to a first specific value, indicates that a Backbone Service Instance Identifier, I-SID, endpoint uses the shared tree for multicasting data frames, and • a tie-break mask that indicates the shared tree used at the I-SID endpoint.
A computer-implemented method of determining a location of a user device , comprising the steps of: obtaining , by one or more computing devices , a location history of the user device from one or more sources, wherein the location history comprises one or more locations associated with the user device at one or more previous times; determining , by the one or more computing devices, a location history window of the user device based at least in part on the location history, wherein the location history window comprises one or more locations associated with the user device at one or more previous times that are no more than a certain time interval before the current time, the size of the location history window being based at least in part on a change of the position of the user device; determining , by the one or more computing devices, a predicted location corresponding to a location of the user device at a current time, based at least in part on the one or more locations in the location history in the location history window; and determining , by the one or more computing devices, a location of the user device based at least in part on the predicted location. obtaining , by one or more computing devices , a location history of the user device from one or more sources, wherein the location history comprises one or more locations associated with the user device at one or more previous times; determining , by the one or more computing devices, a location history window of the user device based at least in part on the location history, wherein the location history window comprises one or more locations associated with the user device at one or more previous times that are no more than a certain time interval before the current time, the size of the location history window being based at least in part on a change of the position of the user device; determining , by the one or more computing devices, a predicted location corresponding to a location of the user device at a current time, based at least in part on the one or more locations in the location history in the location history window; and determining , by the one or more computing devices, a location of the user device based at least in part on the predicted location.
Method for detecting an actuating action which can be carried out by a user on a door handle unit of a vehicle , in particular for opening a movable part of the vehicle , the door handle unit having at least one safety sensor unit for detecting the actuating action, wherein the safety sensor unit supplies an acquisition signal (S) as a function of the detection, which acquisition signal (S) is a continuous or multistage analog signal, the acquisition signal (S) being evaluated directly by a control device on the vehicle side, arranged spatially outside the door handle unit , for detecting the actuating action, wherein a connection of the control device to the safety sensor unit is made directly, so that a direct evaluation of the acquisition signal (S) by the control device is possible through the connection, wherein the door handle unit has a primary sensor unit , and a primary detection of the actuating action is effected by the primary sensor unit , whereas the detection of the actuating action by the safety sensor unit is effected in a subordinate manner as a redundant detection, wherein the primary sensor unit outputs a primary acquisition and/or detection signal (PS) in response to the primary detection, wherein the door handle unit has an evaluation device , wherein the primary acquisition and/or detection signal (PS) is evaluated only indirectly by the control device via the evaluation device . the safety sensor unit supplies an acquisition signal (S) as a function of the detection, which acquisition signal (S) is a continuous or multistage analog signal, the acquisition signal (S) being evaluated directly by a control device on the vehicle side, arranged spatially outside the door handle unit , for detecting the actuating action, wherein a connection of the control device to the safety sensor unit is made directly, so that a direct evaluation of the acquisition signal (S) by the control device is possible through the connection, wherein the door handle unit has a primary sensor unit , and a primary detection of the actuating action is effected by the primary sensor unit , whereas the detection of the actuating action by the safety sensor unit is effected in a subordinate manner as a redundant detection, wherein the primary sensor unit outputs a primary acquisition and/or detection signal (PS) in response to the primary detection, wherein the door handle unit has an evaluation device , wherein the primary acquisition and/or detection signal (PS) is evaluated only indirectly by the control device via the evaluation device .
A method for removing sulfur substances from an aqueous medium, comprising: (a) combining solid material comprising 2-amino-2-deoxy-d-glucopyranose structural units and an aqueous medium comprising sulfur substances to form a composition; (b) controlling, and if necessary adjusting, and keeping the pH of the composition at a value lower than or equal to 3.5 with a non-chloride substance, during binding of sulfur substances to the solid material; and (c) separating the solid material from the aqueous medium to remove the sulfur substances; wherein the non-chloride substance is nitric acid, phosphoric acid, citric acid, oxalic acid, malic acid, tartaric acid, EDTA, a bisphosphonate or a cation exchanger, or any combination thereof. (a) combining solid material comprising 2-amino-2-deoxy-d-glucopyranose structural units and an aqueous medium comprising sulfur substances to form a composition; (b) controlling, and if necessary adjusting, and keeping the pH of the composition at a value lower than or equal to 3.5 with a non-chloride substance, during binding of sulfur substances to the solid material; and (c) separating the solid material from the aqueous medium to remove the sulfur substances;
A method in a user device configured to communicate with a communication node , the method comprising: receiving, from the communication node , downlink control information including information indicating a resource indication value for indicating a resource allocation, wherein the resource indication value is defined by either a first expression or a second expression, wherein: the first expression is N(P-1)+O, and the second expression is N(N-P+1)+(N-1-O), where N is a number of resource blocks in a bandwidth, O is a starting resource block number and P is a length in terms of number of contiguously allocated resource blocks; and interpreting the information indicating the resource indication value based on the downlink control information. receiving, from the communication node , downlink control information including information indicating a resource indication value for indicating a resource allocation, wherein the resource indication value is defined by either a first expression or a second expression, wherein: the first expression is N(P-1)+O, and the second expression is N(N-P+1)+(N-1-O), the first expression is N(P-1)+O, and the second expression is N(N-P+1)+(N-1-O), where N is a number of resource blocks in a bandwidth, O is a starting resource block number and P is a length in terms of number of contiguously allocated resource blocks; and interpreting the information indicating the resource indication value based on the downlink control information.
A straddled vehicle configured to travel with power from a battery , the straddled vehicle comprising: a head pipe ; a down frame extending downward from the head pipe in vehicle up-down direction; a lower frame extending rearward from the down frame in vehicle front-rear direction; a seat frame extending rearward in vehicle front-rear direction and upward in vehicle up-down direction from the lower frame ; a seat disposed behind the head pipe in vehicle front-rear direction, the seat being supported by the seat frame ; and a foot board disposed in front of the seat in vehicle front-rear direction and below the seat in vehicle up-down direction, the foot board being disposed above the lower frame in vehicle up-down direction, the foot board including an upper surface continuous in a vehicle left-right direction, characterized by a storage box being a separate component from the foot board , the storage box being disposed on the upper surface of the foot board , the straddled vehicle is further comprising a fixing portion fixing a bottom surface of the storage box to the foot board , wherein the bottom surface of the storage box is fixed to the upper surface of the foot board by the fixing portion such that the storage box is fixed by its bottom directly on the upper surface of the foot board . a head pipe ; a down frame extending downward from the head pipe in vehicle up-down direction; a lower frame extending rearward from the down frame in vehicle front-rear direction; a seat frame extending rearward in vehicle front-rear direction and upward in vehicle up-down direction from the lower frame ; a seat disposed behind the head pipe in vehicle front-rear direction, the seat being supported by the seat frame ; and a foot board disposed in front of the seat in vehicle front-rear direction and below the seat in vehicle up-down direction, the foot board being disposed above the lower frame in vehicle up-down direction, the foot board including an upper surface continuous in a vehicle left-right direction, characterized by a storage box being a separate component from the foot board , the storage box being disposed on the upper surface of the foot board , the straddled vehicle is further comprising a fixing portion fixing a bottom surface of the storage box to the foot board , wherein the bottom surface of the storage box is fixed to the upper surface of the foot board by the fixing portion such that the storage box is fixed by its bottom directly on the upper surface of the foot board .
Method of wireless communication from a transponder to a reader using active load modulation, called ALM, comprising transmission of data frames from the transponder to the reader and synchronization between a reader carrier clock (CKR) and an ALM carrier clock (CKALM) generated from a digital phase locked loop receiving said reader carrier clock (CKR), said synchronization comprising outside of each transmitted frame (FR), placing said digital phase locked loop in a lock mode in which the feedback loop is closed, and within each transmitted frame (FR), placing said digital phase locked loop in an hold mode in which the feedback loop is opened and correcting (PRS) the phase of said ALM carrier clock (CKALM) at least one time in order to keep the variation of phase difference between said ALM carrier clock (CKALM) and said reader clock (CKR) inside a target range.
A handle for a wet shaver, having: - a handle body adapted to be held by a user; and - a head supporting portion adapted to support a shaver head having at least one blade , wherein the handle body has a cell structure formed by juxtaposed hollow cells at least partly separated by solid walls , said cell structure having an envelope volume Vt which encompasses a certain empty volume Ve, a ratio Ve/Vt of said empty volume on said envelope volume being between 33% and 90%, characterized in that said cell structure is formed as a Voronoi diagram. - a handle body adapted to be held by a user; and - a head supporting portion adapted to support a shaver head having at least one blade ,
A cycle piston engine power system comprising: i) a compression ignition or spark ignition reciprocating piston engine for generating power and exhaust gas; ii) a water cooling and separation unit which receives the exhaust gas and cools and removes water from the exhaust gas to create CO 2 gas supply; iii) a mixing pressure vessel which receives at least a portion of the CO 2 gas supply from the water cooling and separation unit and mixes the CO 2 gas supply with oxygen to create a working fluid to be provided to the piston engine; iv) an oxygen generator for providing oxygen to the mixing pressure vessel ; characterized in that the cycle engine power system further comprises: v) a molecular sieve approach CO 2 capture and cleanup subsystem for producing pressurized CO 2 from at least a portion of the exhaust gas; and vi) a heat recovery unit which receives at least a portion of the exhaust gas produced by operation of the piston engine, wherein the heat recovery unit comprises a turbine having a turbine inlet ; wherein the heat recovery unit generates additional power via the super critical Brayton CO 2 cycle and provides turbine inlet bleed CO 2 to regenerate adsorption beds used in the CO 2 capture and cleanup subsystem whereby turbine inlet bleed CO 2 is ported to ports of adsorption beds and is vented from valves of said adsorption beds. i) a compression ignition or spark ignition reciprocating piston engine for generating power and exhaust gas; ii) a water cooling and separation unit which receives the exhaust gas and cools and removes water from the exhaust gas to create CO 2 gas supply; iii) a mixing pressure vessel which receives at least a portion of the CO 2 gas supply from the water cooling and separation unit and mixes the CO 2 gas supply with oxygen to create a working fluid to be provided to the piston engine; iv) an oxygen generator for providing oxygen to the mixing pressure vessel ; v) a molecular sieve approach CO 2 capture and cleanup subsystem for producing pressurized CO 2 from at least a portion of the exhaust gas; and vi) a heat recovery unit which receives at least a portion of the exhaust gas produced by operation of the piston engine, wherein the heat recovery unit comprises a turbine having a turbine inlet ; wherein the heat recovery unit generates additional power via the super critical Brayton CO 2 cycle and provides turbine inlet bleed CO 2 to regenerate adsorption beds used in the CO 2 capture and cleanup subsystem whereby turbine inlet bleed CO 2 is ported to ports of adsorption beds and is vented from valves of said adsorption beds.
A patient bed comprising a frame configured to support a patient, circuitry carried by the frame , and a graphical user interface (GUI) carried by the frame and coupled to the circuitry , the graphical user interface displaying at least one user interface screen that is used by a caregiver to manually enter location data indicative of a location in a healthcare facility at which the patient bed is located, the circuitry being configured to transmit the location data entered by the caregiver and a bed identification (ID) from the bed, wherein the circuitry commands the GUI to display a first screen of the at least one interface screen that is used by the caregiver to manually enter location data, the first screen being displayed after a threshold period of time elapses subsequent to a power plug of the circuitry being plugged into an alternating current (AC) outlet of the healthcare facility and subsequent to casters of the frame being braked. a frame configured to support a patient, circuitry carried by the frame , and a graphical user interface (GUI) carried by the frame and coupled to the circuitry , the graphical user interface displaying at least one user interface screen that is used by a caregiver to manually enter location data indicative of a location in a healthcare facility at which the patient bed is located, the circuitry being configured to transmit the location data entered by the caregiver and a bed identification (ID) from the bed, wherein the circuitry commands the GUI to display a first screen of the at least one interface screen that is used by the caregiver to manually enter location data, the first screen being displayed after a threshold period of time elapses subsequent to a power plug of the circuitry being plugged into an alternating current (AC) outlet of the healthcare facility and subsequent to casters of the frame being braked.
An apparatus comprising: means for receiving first signals from a first antenna ; and means for receiving analog signals from at least two additional antennas , the means for receiving analog signals comprising at least a first module and a second module , wherein the first module is configured to process selected analog signals received from at least one antenna of the at least two additional antennas to generate an analog output that is input to the means for receiving first signals for further processing, and the second module is configured to process signals from another of the at least two additional antennas and to communicate with functional elements different from the means for receiving first signals at the apparatus, wherein an output of the means for receiving analog signals from at least two additional antennas is configured to communicate with the functional elements; wherein the means for receiving analog signals from at least two additional antennas is positioned closer to at least one of the two additional antennas than the means for receiving first signals from the first antenna . means for receiving first signals from a first antenna ; and means for receiving analog signals from at least two additional antennas , the means for receiving analog signals comprising at least a first module and a second module , wherein the first module is configured to process selected analog signals received from at least one antenna of the at least two additional antennas to generate an analog output that is input to the means for receiving first signals for further processing, and the second module is configured to process signals from another of the at least two additional antennas and to communicate with functional elements different from the means for receiving first signals at the apparatus, wherein an output of the means for receiving analog signals from at least two additional antennas is configured to communicate with the functional elements; wherein the means for receiving analog signals from at least two additional antennas is positioned closer to at least one of the two additional antennas than the means for receiving first signals from the first antenna .
Fireproof polymer matrix composite structure for an outer skin of a tail cone of an aircraft, comprising: a CFRP lay-up having a first side and a second side , a first GFRP layer located, on the first side of the CFRP lay-up or on the second side of the CFRP lay-up , said first GFRP layer being configured to prevent the propagation of fire through the CFRP lay-up in any of its sides , and a second GFRP layer located, on the first side or on the second side of the CFRP lay-up , said sides not being occupied by the first GFRP layer , wherein the CFRP lay-up is a tape of carbon fibre material that comprises at least eight plies of carbon fibre tape, and the first GFRP layer has a width of at least 0,066 mm. a CFRP lay-up having a first side and a second side , a first GFRP layer located, on the first side of the CFRP lay-up or on the second side of the CFRP lay-up , said first GFRP layer being configured to prevent the propagation of fire through the CFRP lay-up in any of its sides , and a second GFRP layer located, on the first side or on the second side of the CFRP lay-up , said sides not being occupied by the first GFRP layer , wherein the CFRP lay-up is a tape of carbon fibre material that comprises at least eight plies of carbon fibre tape, and the first GFRP layer has a width of at least 0,066 mm.
An inflatable penile prosthesis comprising: a fluid reservoir configured to hold fluid; an inflatable member ; and a pump assembly configured to transfer the fluid from the fluid reservoir to the inflatable member during an inflation cycle, the pump assembly including: a first pump configured to inject the fluid into the inflatable member according to a first flow rate; and a second pump configured to inject fluid into the inflatable member according to a second flow rate, the second flow rate being less than the first flow rate, wherein the pump assembly is configured to move between a parallel configuration in which the second pump is disposed in parallel with the first pump and a serial configuration in which the second pump is disposed in serial with the first pump . a fluid reservoir configured to hold fluid; an inflatable member ; and a pump assembly configured to transfer the fluid from the fluid reservoir to the inflatable member during an inflation cycle, the pump assembly including: a first pump configured to inject the fluid into the inflatable member according to a first flow rate; and a second pump configured to inject fluid into the inflatable member according to a second flow rate, the second flow rate being less than the first flow rate, a first pump configured to inject the fluid into the inflatable member according to a first flow rate; and a second pump configured to inject fluid into the inflatable member according to a second flow rate, the second flow rate being less than the first flow rate, wherein the pump assembly is configured to move between a parallel configuration in which the second pump is disposed in parallel with the first pump and a serial configuration in which the second pump is disposed in serial with the first pump .