mhurhangee/patent-ind-claim-en huggingface dataset:
A method for communicating performed by a base station, BS, in a wireless communication system, the method comprising: transmitting, to a user equipment, UE , by the BS , a primary synchronization signal, PSS; and transmitting, to the UE by the BS , a secondary synchronization signal, SSS, based on a first M-sequence multiplied by a second M-sequence, the first M-sequence is based on a first shift index and the second M-sequence is based on a second shift index, wherein the first shift index is equal to K*(3 floor(NID /112) + NID ), and wherein the second shift index is equal to NID mod 112, where NID is a first cell identifier, NID is a second cell identifier, and K is an integer greater than 3. transmitting, to a user equipment, UE , by the BS , a primary synchronization signal, PSS; and transmitting, to the UE by the BS , a secondary synchronization signal, SSS, based on a first M-sequence multiplied by a second M-sequence, the first M-sequence is based on a first shift index and the second M-sequence is based on a second shift index, wherein the first shift index is equal to K*(3 floor(NID /112) + NID ), and wherein the second shift index is equal to NID mod 112, where NID is a first cell identifier, NID is a second cell identifier, and K is an integer greater than 3.
A route processing method, wherein the method comprises: obtaining (S 102), by a first network device, a flow effective time parameter and a route related to the flow effective time parameter, wherein the flow effective time parameter comprises a start time value and a duration value, and the flow effective time parameter is used to indicate that the route related to the flow effective time parameter is effective in a time interval specified by the flow effective time parameter; processing (S104), by the first network device in the specified time interval, service traffic corresponding to the route related to the flow effective time parameter, and generating a route control message, wherein the route control message carries the flow effective time parameter and the route related to the flow effective time parameter, the route control message is an extended border gateway protocol, BGP, update message based on BGP Flow Specification, FlowSpec; and sending (S106), by the first network device, the route control message to a second network device. obtaining (S 102), by a first network device, a flow effective time parameter and a route related to the flow effective time parameter, wherein the flow effective time parameter comprises a start time value and a duration value, and the flow effective time parameter is used to indicate that the route related to the flow effective time parameter is effective in a time interval specified by the flow effective time parameter; processing (S104), by the first network device in the specified time interval, service traffic corresponding to the route related to the flow effective time parameter, and generating a route control message, wherein the route control message carries the flow effective time parameter and the route related to the flow effective time parameter, the route control message is an extended border gateway protocol, BGP, update message based on BGP Flow Specification, FlowSpec; and sending (S106), by the first network device, the route control message to a second network device.
An industrial truck with a load part and a battery-powered drive part that comprises a driver standing platform and a frame that is equipped with a transverse metal plate and two wheel carriers , wherein a battery standing platform is provided between the wheel carriers , characterized in that the frame is further equipped with a rear wall facing the load part, in that a battery storage region is formed below a standing platform mounted on the frame such that the transverse metal plate forms a standing surface for the battery standing platform , wherein the battery can be shifted from its battery standing platform into the battery storage region , wherein the battery standing platform and the battery storage region lie in one plane.
A manufacturing method for producing a tower segment of a tapering tower of a wind power installation , wherein the tower in the installed state and in the operating state has a vertical longitudinal axis and an angular cross-section orthogonal to this longitudinal axis, said method comprising the steps: - providing (S1) a plate that extends in a longitudinal direction (L) and, orthogonally thereto, in a circumferential direction (U), wherein the extent in the longitudinal direction (L) is larger than the extent in the circumferential direction (U); and - rolling (S2) the plate along the longitudinal direction (L) of the plate , wherein the rolling comprises: incorporating a thickness profile having a variable thickness (dÜ); and - bending (S3) the plate in the circumferential direction (U); and - producing (S4) at least one abutting face on the plate for connecting at least one further plate , wherein the producing of the at least one abutting face comprises: producing (S4.1) at least one longitudinal abutting face for connecting at least one further plate in the circumferential direction (U), and removing (S4.3) a peripheral portion of the plate for adjusting or achieving a required inclination of the tower, so that a tower segment inclined relative to the longitudinal axis in the installed state has a varying curvature in the longitudinal direction. - providing (S1) a plate that extends in a longitudinal direction (L) and, orthogonally thereto, in a circumferential direction (U), wherein the extent in the longitudinal direction (L) is larger than the extent in the circumferential direction (U); and - rolling (S2) the plate along the longitudinal direction (L) of the plate , wherein the rolling comprises: incorporating a thickness profile having a variable thickness (dÜ); and - bending (S3) the plate in the circumferential direction (U); and - producing (S4) at least one abutting face on the plate for connecting at least one further plate , wherein the producing of the at least one abutting face comprises: producing (S4.1) at least one longitudinal abutting face for connecting at least one further plate in the circumferential direction (U), and removing (S4.3) a peripheral portion of the plate for adjusting or achieving a required inclination of the tower, so that a tower segment inclined relative to the longitudinal axis in the installed state has a varying curvature in the longitudinal direction. producing (S4.1) at least one longitudinal abutting face for connecting at least one further plate in the circumferential direction (U), and removing (S4.3) a peripheral portion of the plate for adjusting or achieving a required inclination of the tower, so that a tower segment inclined relative to the longitudinal axis in the installed state has a varying curvature in the longitudinal direction.
A method of back-pressure control in a transport network, the method being performed by a first network node and comprising: monitoring a buffer state of a buffer; determining a condition indicative of back-pressure in response to a change of the buffer state passing a predetermined limit; in response to determining the condition indicative of back-pressure, creating a back-pressure notification message including a combination of: i) a flow identifier identifying a flow that contributes to back-pressure; and ii) back-pressure compensation information indicating a suitable compensation for the back-pressure caused by the flow associated with said flow identifier ; and transmitting the back-pressure notification message to a second network node; wherein the flow identifier includes at least one of a Packet Data Convergence Protocol, PDCP, Flow Identification, FID a PDCP Group FID or a PDCP Multicast Group FID. monitoring a buffer state of a buffer; determining a condition indicative of back-pressure in response to a change of the buffer state passing a predetermined limit; in response to determining the condition indicative of back-pressure, creating a back-pressure notification message including a combination of: i) a flow identifier identifying a flow that contributes to back-pressure; and ii) back-pressure compensation information indicating a suitable compensation for the back-pressure caused by the flow associated with said flow identifier ; and i) a flow identifier identifying a flow that contributes to back-pressure; and ii) back-pressure compensation information indicating a suitable compensation for the back-pressure caused by the flow associated with said flow identifier ; and transmitting the back-pressure notification message to a second network node; wherein the flow identifier includes at least one of a Packet Data Convergence Protocol, PDCP, Flow Identification, FID a PDCP Group FID or a PDCP Multicast Group FID.
A copolymer obtainable by copolymerization of (A) at least one unsaturated dicarboxylic acid or derivatives thereof, (B) at least one α-olefin having from at least 6 up to and including 20 carbon atoms, with a molar incorporation ratio of (A):(B) of 1:0.5 to 2.0, followed by reaction with at least one dialkylamine (E), where the two alkyl radicals in the at least one dialkylamine (E) are independently alkyl radicals having at least 17 up to 30 carbon atoms, and where the molar ratio of dialkylamine (E) based on incorporated units of the dicarboxylic acid (A) in the copolymer is 1.1:1 to 1.9:1. (A) at least one unsaturated dicarboxylic acid or derivatives thereof, (B) at least one α-olefin having from at least 6 up to and including 20 carbon atoms,
A method, comprising: directing a laser beam to a target along a scan path; determining a modulation for the laser beam, wherein the modulation includes an alternating of an intensity of the laser beam between two or more discrete laser beam power levels, wherein the alternating is based on a detected optical characteristic that indicates melt pool instabilities of a material of the target proximate the scan path; and modulating the laser beam with the determined modulation during the directing of the laser beam along the scan path so as to reduce the melt pool instabilities. directing a laser beam to a target along a scan path; determining a modulation for the laser beam, wherein the modulation includes an alternating of an intensity of the laser beam between two or more discrete laser beam power levels, wherein the alternating is based on a detected optical characteristic that indicates melt pool instabilities of a material of the target proximate the scan path; and modulating the laser beam with the determined modulation during the directing of the laser beam along the scan path so as to reduce the melt pool instabilities.
An apparatus comprising: means for sensing a current temperature of a processor ; and means for controlling an idle workload procedure, the controlling means to provide an idle workload to the processor to execute in response to the current temperature falling below a setback temperature, characterised in that the controlling means is to provide the idle workload to the processor when the idle workload procedure is armed and to not provide the idle workload to the processor when the idle workload procedure is disarmed, and wherein the controlling means is to disarm the idle workload procedure in response to a timeout period elapsing since the idle workload procedure was last armed. means for sensing a current temperature of a processor ; and means for controlling an idle workload procedure, the controlling means to provide an idle workload to the processor to execute in response to the current temperature falling below a setback temperature, characterised in that the controlling means is to provide the idle workload to the processor when the idle workload procedure is armed and to not provide the idle workload to the processor when the idle workload procedure is disarmed, and wherein the controlling means is to disarm the idle workload procedure in response to a timeout period elapsing since the idle workload procedure was last armed.
A method of manufacturing an emboli filter membrane having a three-dimensional structure from a sheet of fabric made from at least of strand, comprising; providing a mold made from two parts, a first part having a cavity in the shape of the three-dimensional structure surrounded by a first surface , a second part having a protrusion in the shape of the three-dimensional structure surrounded by a second surface , and when the mold is closed there is a space between a surface of the cavity and a surface of the protruding portion; arranging the sheet of fabric between said two parts of said mold so that a first portion of said sheet is arranged between said surface of said cavity and said surface of said protruding part, and a second portion of said sheet circumference said first portion is arranged between said first and second surface; molding said sheet of fabric by heat treatment to set said sheet of fabric thereby obtaining said 3D-strucure. providing a mold made from two parts, a first part having a cavity in the shape of the three-dimensional structure surrounded by a first surface , a second part having a protrusion in the shape of the three-dimensional structure surrounded by a second surface , and when the mold is closed there is a space between a surface of the cavity and a surface of the protruding portion; arranging the sheet of fabric between said two parts of said mold so that a first portion of said sheet is arranged between said surface of said cavity and said surface of said protruding part, and a second portion of said sheet circumference said first portion is arranged between said first and second surface; molding said sheet of fabric by heat treatment to set said sheet of fabric thereby obtaining said 3D-strucure.
An apparatus for providing a safety strategy to a vehicle, the apparatus comprising: a sensor configured to sense information about an outside of the vehicle; a memory storing road information; and a control circuit configured to be electrically connected with the sensor and the memory , wherein the control circuit is configured to: generate a route which is toward a shoulder included in a road where the vehicle is traveling, when a transition demand of the vehicle is ignored, wherein the transition demand is output to hand over control authority to a driver of the vehicle; calculate an expected time taken to enter the shoulder; adjust an operational condition of an automatic lane change based on at least a portion of a speed of the vehicle, a speed of a following vehicle in a target lane of the route, or a distance between the vehicle and the following vehicle, when the expected time is longer than a specified time; and perform the automatic lane change toward the shoulder along the route, when the adjusted operational condition is satisfied. a sensor configured to sense information about an outside of the vehicle; a memory storing road information; and a control circuit configured to be electrically connected with the sensor and the memory , wherein the control circuit is configured to: generate a route which is toward a shoulder included in a road where the vehicle is traveling, when a transition demand of the vehicle is ignored, wherein the transition demand is output to hand over control authority to a driver of the vehicle; calculate an expected time taken to enter the shoulder; adjust an operational condition of an automatic lane change based on at least a portion of a speed of the vehicle, a speed of a following vehicle in a target lane of the route, or a distance between the vehicle and the following vehicle, when the expected time is longer than a specified time; and perform the automatic lane change toward the shoulder along the route, when the adjusted operational condition is satisfied. generate a route which is toward a shoulder included in a road where the vehicle is traveling, when a transition demand of the vehicle is ignored, wherein the transition demand is output to hand over control authority to a driver of the vehicle; calculate an expected time taken to enter the shoulder; adjust an operational condition of an automatic lane change based on at least a portion of a speed of the vehicle, a speed of a following vehicle in a target lane of the route, or a distance between the vehicle and the following vehicle, when the expected time is longer than a specified time; and perform the automatic lane change toward the shoulder along the route, when the adjusted operational condition is satisfied.
A method to control the activation of a drying system for drying compressed air based on the occurred substitution of a filter in the drying system ; said method comprises: generating a maintenance code (CM) of said drying system by a microcontroller included in a electronic control apparatus which is designed to control said drying system , determining, by said microcontroller , a first keyword (PW1) based on said maintenance code (CM), displaying said maintenance code (CM) by a display , communicating said maintenance code (CM) to a remote electronic authentication system , determining, by said remote electronic authentication system , a second keyword (PW2) based on said maintenance code (CM), receiving said second keyword (PW2) from said electronic authentication system , providing said second keyword (PW2) to said microcontroller , comparing, by said microcontroller , said first keyword (PW1) with said second keyword (PW2), authenticating, by said microcontroller , the activation of the operation of said drying system based on the result of said comparison, said method being characterised in that it comprises: determining said maintenance code (CM) based on a first parameter indicative of a code associated with said microcontroller and on a second parameter indicative of an events counter, implementing a non-linear function (FNL) for determining said first keyword (PW1) and said second keyword (PW2) based on said maintenance code (CM). generating a maintenance code (CM) of said drying system by a microcontroller included in a electronic control apparatus which is designed to control said drying system , determining, by said microcontroller , a first keyword (PW1) based on said maintenance code (CM), displaying said maintenance code (CM) by a display , communicating said maintenance code (CM) to a remote electronic authentication system , determining, by said remote electronic authentication system , a second keyword (PW2) based on said maintenance code (CM), receiving said second keyword (PW2) from said electronic authentication system , providing said second keyword (PW2) to said microcontroller , comparing, by said microcontroller , said first keyword (PW1) with said second keyword (PW2), authenticating, by said microcontroller , the activation of the operation of said drying system based on the result of said comparison, determining said maintenance code (CM) based on a first parameter indicative of a code associated with said microcontroller and on a second parameter indicative of an events counter, implementing a non-linear function (FNL) for determining said first keyword (PW1) and said second keyword (PW2) based on said maintenance code (CM).
Use of a Peltier element (P) as a high-performance radiation sensor for electromagnetic radiation with wavelengths up to 100um with radiant power outputs greater than 100 watts, wherein an electrical voltage is measured at the Peltier element (P) according to the radiation-induced heat flow in the transverse direction of the Peltier element (P), perpendicular to the longitudinal extension of the Peltier element (P), wherein the Peltier element (P) has insulator layers , column bridges , column solder layers and a thermally active layer consisting of alternately arranged first thermopiles comprising a first material (A) and second thermopiles comprising a second material (B) and the thermopiles are formed without semiconductors, wherein the first and second material (A, B) is a metal or a metal alloy, and the first material (A) has a Seebeck coefficient, measured relative to platinum at 273 K, of greater than 6 μV/K, and the second material (B) has a Seebeck coefficient, measured relative to platinum at 273 K, of less than or equal to -15 μV/K, the absolute values of the Seebeck coefficients of the first and second materials (A, B), measured relative to platinum at 273 K, differ from each other by less than 50 % and the thermal conductivities of the first and second material (A, B) differ from each other by a maximum of 50 % and wherein the total thermal resistance of the Peltier element (P) over the entire Peltier element (P) measured in the transverse direction (Q) does not exceed 2 K/W. the Peltier element (P) has insulator layers , column bridges , column solder layers and a thermally active layer consisting of alternately arranged first thermopiles comprising a first material (A) and second thermopiles comprising a second material (B) and the thermopiles are formed without semiconductors, wherein the first and second material (A, B) is a metal or a metal alloy, and the first material (A) has a Seebeck coefficient, measured relative to platinum at 273 K, of greater than 6 μV/K, and the second material (B) has a Seebeck coefficient, measured relative to platinum at 273 K, of less than or equal to -15 μV/K, the absolute values of the Seebeck coefficients of the first and second materials (A, B), measured relative to platinum at 273 K, differ from each other by less than 50 % and the thermal conductivities of the first and second material (A, B) differ from each other by a maximum of 50 % and wherein the total thermal resistance of the Peltier element (P) over the entire Peltier element (P) measured in the transverse direction (Q) does not exceed 2 K/W.
An ultrasonograph for obtaining an image of the inside of a subject, comprising a transducer array for transmitting/receiving an ultrasonic pulse to/from the subject, wherein the transducer array is adapted to transmit transmission pulse waves having a plurality of focal points set in an ultrasound propagation direction from each of elements constituting a transmit aperture of said transducer array by using a weighted mean value Un as a delay time, characterised in that the ultrasonograph is adapted to calculate the weighted mean value Un of a plurality of transmission delay time values corresponding to respective focal lengths of the transmission pulse waves by calculating an aperture weight An(L) to be given to the n-th element in the transmit aperture in correspondence with a focal length L and using the calculated aperture weight An(L) on the basis of the delay time Tn(L) to be given to the n-th element in the transmit aperture for transmit focusing with respect to each focal length L in the equation Un = ∫ Tn L An L dL / ∫ An L dL .