mhurhangee/ep-ind-claims huggingface dataset:
Scan chain circuitry (300, 400, 500) on an integrated circuit device, said scan chain circuitry (300, 400, 500) comprising: a plurality of memory elements on said integrated circuit device; and a plurality of control elements on said integrated circuit device, each of said control elements being located between respective ones of said plurality of memory elements and adapted to controllably connect said plurality of memory elements into a scan chain (300, 400, 500); characterized by a plurality of scan enable activation elements (304, 404, 504) on said integrated circuit device, each of said scan enable activation elements (304, 404, 504) being adapted to control a respective subplurality of said plurality of control elements for connecting a respective subplurality of said plurality of memory elements into said scan chain (300, 400, 500); wherein each of said scan enable activation elements (304, 404, 504) is actuated, to connect its respective subplurality of said plurality of memory elements into said scan chain (300, 400, 500), by a first enable signal common to more than one of said scan enable activation elements (304, 404, 504), and a second enable signal (224, 324) for said one of said scan enable activation elements (304, 404, 504). a plurality of memory elements on said integrated circuit device; and a plurality of control elements on said integrated circuit device, each of said control elements being located between respective ones of said plurality of memory elements and adapted to controllably connect said plurality of memory elements into a scan chain (300, 400, 500); characterized by a plurality of scan enable activation elements (304, 404, 504) on said integrated circuit device, each of said scan enable activation elements (304, 404, 504) being adapted to control a respective subplurality of said plurality of control elements for connecting a respective subplurality of said plurality of memory elements into said scan chain (300, 400, 500); wherein each of said scan enable activation elements (304, 404, 504) is actuated, to connect its respective subplurality of said plurality of memory elements into said scan chain (300, 400, 500), by a first enable signal common to more than one of said scan enable activation elements (304, 404, 504), and a second enable signal (224, 324) for said one of said scan enable activation elements (304, 404, 504).
A free fibre or loose fibre structure for padding comprising a shell containing a plurality of free or loose fibres, said free or loose fibres having a length ranging between 2 and 28 mm, with a titre or count that ranges between 0.8 den and 4 den; said structure being characterized in that it is manufactured according to the method of claim 2.
A gesture controlled device comprising: a sensor configured to detect an input gesture and obtain a gesture input information, said gesture input information including one or more points, a sequence in which the one or more points are detected and at least one inflection point; a gesture detector comprising an identification optimizer and a gesture comparator; the identification optimizer being configured to generate a candidate gesture request including a set of points up to a first of the at least one inflection point and to obtain candidate gestures for the set of points up to the first of the at least one inflection point; and the gesture comparator being configured to perform an identification of the input gesture based on a match of subsequent points after the at least one inflection point included in the gesture input information with subsequent points after the at least one inflection point of the obtained candidate gestures. a sensor configured to detect an input gesture and obtain a gesture input information, said gesture input information including one or more points, a sequence in which the one or more points are detected and at least one inflection point; a gesture detector comprising an identification optimizer and a gesture comparator; the identification optimizer being configured to generate a candidate gesture request including a set of points up to a first of the at least one inflection point and to obtain candidate gestures for the set of points up to the first of the at least one inflection point; and the gesture comparator being configured to perform an identification of the input gesture based on a match of subsequent points after the at least one inflection point included in the gesture input information with subsequent points after the at least one inflection point of the obtained candidate gestures.
A terminal comprising a processor and a transceiver, wherein under a condition that a Physical Uplink Control Channel, PUCCH, and a Physical Uplink Shared Channel, PUSCH, in a configured grant resource fully or partially overlap, when a first Uplink Control Information, UCI, with a first priority is to be transmitted on the PUCCH, the processor is configured to determine that the first UCI needs to be multiplexed in the PUSCH and the transceiver is configured to multiplex the first UCI in the PUSCH, characterized in that: when a second UCI with a second priority is to be transmitted on the PUCCH, the processor is configured to trigger the transceiver to drop off the second UCI, wherein the first priority is higher than the second priority. wherein under a condition that a Physical Uplink Control Channel, PUCCH, and a Physical Uplink Shared Channel, PUSCH, in a configured grant resource fully or partially overlap, when a first Uplink Control Information, UCI, with a first priority is to be transmitted on the PUCCH, the processor is configured to determine that the first UCI needs to be multiplexed in the PUSCH and the transceiver is configured to multiplex the first UCI in the PUSCH, characterized in that: when a second UCI with a second priority is to be transmitted on the PUCCH, the processor is configured to trigger the transceiver to drop off the second UCI, wherein the first priority is higher than the second priority. when a second UCI with a second priority is to be transmitted on the PUCCH, the processor is configured to trigger the transceiver to drop off the second UCI, wherein the first priority is higher than the second priority.
Vacuum cleaner for cleaning and maintaining floor surfaces, comprising a housing and at least one wheel mounted on the housing for supporting the housing on the floor surface, the wheel being mounted eccentrically on the housing, the wheel being mounted in a wheel guide so as to be rotatably guided, which wheel guide can be connected to the housing, the wheel guide having a U-shaped cross section, the wheel being mounted on the web of the U-shaped cross section and the flanges (9, 10) of the U-shaped cross section guiding the mounted wheel laterally, characterised in that one of the flanges is open in a region which is an upper region in the operating position.
A rotating seal mechanism for a rotary kiln, disposed between a fixed body and a rotating body and comprising: a sealing assembly disposed on a circumference of the rotating body and rotatably connected to the rotating body, wherein the sealing assembly comprises a sealing frame body, and the sealing frame body is provided therein with a sealing ring, a positioning ring for a sealing ring, and a gland for a sealing ring; a flexible connecting body connected with the sealing assembly and the fixed body; a limiting cooperating component disposed on the sealing assembly; and follower support components disposed on the sealing assembly, characterized in that the follower support components define a coaxiality between the sealing assembly and the rotating body, the follower support components are supporting rollers, supporting rings or supporting blocks respectively on one side of the sealing frame body and one side of the gland for the sealing ring, wherein during rotation of the rotating body, the sealing assembly moves relative to the rotating body to be radially displaced up and down and leftwards and rightwards with the rotating body, and during the rotation of the rotating body, the sealing member is subjected to friction from the rotating body, a force applied in a circumferential direction is unloaded onto the flexible connecting body, and a position of the sealing assembly in the circumferential direction changes. a sealing assembly disposed on a circumference of the rotating body and rotatably connected to the rotating body, wherein the sealing assembly comprises a sealing frame body, and the sealing frame body is provided therein with a sealing ring, a positioning ring for a sealing ring, and a gland for a sealing ring; a flexible connecting body connected with the sealing assembly and the fixed body; a limiting cooperating component disposed on the sealing assembly; and follower support components disposed on the sealing assembly, characterized in that the follower support components define a coaxiality between the sealing assembly and the rotating body, the follower support components are supporting rollers, supporting rings or supporting blocks respectively on one side of the sealing frame body and one side of the gland for the sealing ring, wherein during rotation of the rotating body, the sealing assembly moves relative to the rotating body to be radially displaced up and down and leftwards and rightwards with the rotating body, and during the rotation of the rotating body, the sealing member is subjected to friction from the rotating body, a force applied in a circumferential direction is unloaded onto the flexible connecting body, and a position of the sealing assembly in the circumferential direction changes.
A wind turbine rotor with a rotor blade comprising a flap and a flap actuating system, wherein - the rotor blade comprises a pressure side and a suction side, - the flap comprises a fixed part that is fixed to the rotor blade and a movable part that is movable relative to the fixed part, characterized in that - the fixed part of the flap is fixed to the pressure side of the rotor blade, and - the flap actuating system comprises an actuating element, which is integrated into the flap as inner cavity, with a reversibly changeable volume located between the movable part of the flap and the fixed part of the flap, a fluid within the actuating element the pressure of which is settable and a pressure setting device which is designed to press fluid into or release fluid from the actuating element as to change its volume. - the rotor blade comprises a pressure side and a suction side, - the flap comprises a fixed part that is fixed to the rotor blade and a movable part that is movable relative to the fixed part, - the fixed part of the flap is fixed to the pressure side of the rotor blade, and - the flap actuating system comprises an actuating element, which is integrated into the flap as inner cavity, with a reversibly changeable volume located between the movable part of the flap and the fixed part of the flap, a fluid within the actuating element the pressure of which is settable and a pressure setting device which is designed to press fluid into or release fluid from the actuating element as to change its volume.
An automatic alerting device that automatically alerts about occurrence of an accident of a vehicle, the automatic alerting device comprising: a wheel speed sensor that detects the wheel speed of the vehicle; a lateral G sensor that detects lateral G of the vehicle; an alerting section that alerts outside of the vehicle; a control section that controls the alerting section; and an accident determination section that determines whether the vehicle is involved in the accident on the basis of the wheel speed detected by the wheel speed sensor, an absolute value of the lateral G of the vehicle detected by the lateral G sensor, and a change amount of the lateral G of the vehicle detected by the lateral G sensor, wherein the control section makes the alerting section alert the outside when the accident determination section determines that the vehicle is involved in the accident, wherein the accident determination section determines whether a state where the wheel speed is at most equal to a specified value, the absolute value of the lateral G of the vehicle is at least equal to a specified value, and the change amount of the lateral G of the vehicle is at most equal to a specified value at least continues for specified time, and determines that the vehicle is involved in the accident when determining that the state at least continues for the specified time. a wheel speed sensor that detects the wheel speed of the vehicle; a lateral G sensor that detects lateral G of the vehicle; an alerting section that alerts outside of the vehicle; a control section that controls the alerting section; and an accident determination section that determines whether the vehicle is involved in the accident on the basis of the wheel speed detected by the wheel speed sensor, an absolute value of the lateral G of the vehicle detected by the lateral G sensor, and a change amount of the lateral G of the vehicle detected by the lateral G sensor, wherein the control section makes the alerting section alert the outside when the accident determination section determines that the vehicle is involved in the accident, wherein the accident determination section determines whether a state where the wheel speed is at most equal to a specified value, the absolute value of the lateral G of the vehicle is at least equal to a specified value, and the change amount of the lateral G of the vehicle is at most equal to a specified value at least continues for specified time, and determines that the vehicle is involved in the accident when determining that the state at least continues for the specified time.
A handover method, comprising: sending, by a first network device (1700, 2000), a first configuration message to a communications device (1900, 2200), wherein a second Packet Data Convergence Protocol, PDCP, entity and a first PDCP entity are established for the communications device (1900, 2200), the second PDCP entity comprises a second ciphering/deciphering function and a second data packet numbering/reordering function, and the first PDCP entity comprises a first ciphering/deciphering function and the first data packet numbering/reordering function, wherein the first configuration message is used to instruct the communications device (1900, 2200) to configure the second ciphering/deciphering function associated with a second network device (1800, 2100) and to share a first data packet numbering/reordering function with the second PDCP entity, and configuring, by the first network device, the communications device (1900, 2200) with the first data packet numbering/reordering function and the first ciphering/deciphering function associated with the first network device (1700, 2000); and receiving, by the first network device (1700, 2000), a first configuration complete message sent by the communications device (1900, 2200). sending, by a first network device (1700, 2000), a first configuration message to a communications device (1900, 2200), wherein a second Packet Data Convergence Protocol, PDCP, entity and a first PDCP entity are established for the communications device (1900, 2200), the second PDCP entity comprises a second ciphering/deciphering function and a second data packet numbering/reordering function, and the first PDCP entity comprises a first ciphering/deciphering function and the first data packet numbering/reordering function, wherein the first configuration message is used to instruct the communications device (1900, 2200) to configure the second ciphering/deciphering function associated with a second network device (1800, 2100) and to share a first data packet numbering/reordering function with the second PDCP entity, and configuring, by the first network device, the communications device (1900, 2200) with the first data packet numbering/reordering function and the first ciphering/deciphering function associated with the first network device (1700, 2000); and receiving, by the first network device (1700, 2000), a first configuration complete message sent by the communications device (1900, 2200).
Retaining device for a terminal which can be coupled in a wireless manner, wherein the retaining device comprises at least one stand part and at least one movable part, wherein the stand part has at least one bearing surface for the terminal, wherein the retaining device comprises at least one conductor structure arranged on the stand side, wherein the movable part has at least one pressing element, wherein the movable part is movably attached to the stand part in such a way that a variable distance can be set between the bearing surface and the pressing element, wherein the movable part is movably attached to the stand part in such a way that the movable part is movable by a translational movement, characterized in that the conductor structure is a conductor structure for generating an alternating electromagnetic field for inductively transmitting energy to the terminal or is an antenna structure for unidirectional or bidirectional wireless communication with the terminal, wherein the movable part is movably attached to the stand part in such a way that the movable part is movable by a rotational movement, wherein the movable part has at least one pin which is rotatably mounted on the stand part, wherein the at least one pin is arranged in an elongated hole or a groove of the stand part.
A.method comprising: receiving, by a path computation element centralized controller, PCECC (360, 460, 560, 710), a service request from a transport service orchestrator to provision for a service from a first edge node to a second edge node in a network; computing, by the PCECC (360, 460, 560, 710), a path for a label switched path, LSP, from the first edge node to the second edge node in response to the service request; reserving, by the PCECC (360, 460, 560, 710), label information for forwarding traffic of the service on the LSP, wherein the label information comprises a path label for each of a plurality of SDN-enabled nodes on the path except for an ingress node and comprises a service label for identifying the service; and sending, by the PCECC (360, 460, 560, 710), a label update message to a third node on the path to facilitate forwarding of the traffic of the service on the path, wherein the label update message comprises the label information; and the label update message is a path computation element communication protocol label update, PCLabelUpd, message. receiving, by a path computation element centralized controller, PCECC (360, 460, 560, 710), a service request from a transport service orchestrator to provision for a service from a first edge node to a second edge node in a network; computing, by the PCECC (360, 460, 560, 710), a path for a label switched path, LSP, from the first edge node to the second edge node in response to the service request; reserving, by the PCECC (360, 460, 560, 710), label information for forwarding traffic of the service on the LSP, wherein the label information comprises a path label for each of a plurality of SDN-enabled nodes on the path except for an ingress node and comprises a service label for identifying the service; and sending, by the PCECC (360, 460, 560, 710), a label update message to a third node on the path to facilitate forwarding of the traffic of the service on the path, wherein the label update message comprises the label information; and the label update message is a path computation element communication protocol label update, PCLabelUpd, message.
A copolymer comprising: 80% by mass to 98% by mass of structural units derived from a methacrylic ester monomer; and 2% to 10% by mass of ester structural units derived from a cyclic ketene acetal monomer, the copolymer having a weight average molecular weight, measured by GPC as set out in the experimental section, of 80,000 or more and a molecular weight distribution of 1.75 to 3.80. 80% by mass to 98% by mass of structural units derived from a methacrylic ester monomer; and 2% to 10% by mass of ester structural units derived from a cyclic ketene acetal monomer,
Use of a size standard in determining the size or sizes of two or more loci in a nucleic acid containing sample, each of the loci having one or more known possible sizes, the known possible sizes having a range of sizes defined by the largest and smallest known possible size, the size standard including size standard elements, wherein the size of one or more of those size standard elements is selected to be: a) larger than the largest of the known possible sizes for the locus; or b) smaller than the smallest of the known possible sizes for the locus; or c) different from any of the sizes of the known possible sizes for the locus; in which the size standard includes a set of one or more size standard elements provided with a characteristic unit and one or more further sets of one or more size standard elements provided with a different characteristic unit, characterised in that each of the two or more loci are separated in size from adjacent loci having the same characteristic unit by a single size standard element, wherein a characteristic unit is a label. a) larger than the largest of the known possible sizes for the locus; or b) smaller than the smallest of the known possible sizes for the locus; or c) different from any of the sizes of the known possible sizes for the locus;
A surface acoustic wave filter comprising: a piezoelectric substrate; and a plurality of one-terminal-pair surface acoustic wave resonators (2a,2b,3a-3c) disposed on said piezoelectric substrate, each of the plurality of one-terminal-pair surface acoustic wave resonators including interdigital electrodes (21,31) disposed on said piezoelectric substrate, and an insulating film deposited on and adhered to the interdigital electrodes; wherein at least one (2a,2b) of said plurality of one-terminal-pair surface acoustic wave resonators is a series arm resonator, and at least one (3a- 3c) of the remaining one-terminal-pair surface acoustic wave resonators is a parallel arm resonator, the series arm resonator(s) (2a,2b) and the parallel arm resonator(s) (3a-3c) are coupled in a ladder arrangement, and the electrode duty ratio of the series arm resonator(s) (2a,2b) is smaller than the electrode duty ratio of the parallel arm resonator(s) (3a-3c), the electrode duty ratio of a one-terminal-pair surface acoustic wave resonator being defined by the following equation: electrode duty ratio = 2 × W / λ where λ denotes the wavelength of the one-terminal-pair surface acoustic wave resonator, and W denotes the line width of its interdigital electrode. a piezoelectric substrate; and a plurality of one-terminal-pair surface acoustic wave resonators (2a,2b,3a-3c) disposed on said piezoelectric substrate, each of the plurality of one-terminal-pair surface acoustic wave resonators including interdigital electrodes (21,31) disposed on said piezoelectric substrate, and an insulating film deposited on and adhered to the interdigital electrodes; wherein at least one (2a,2b) of said plurality of one-terminal-pair surface acoustic wave resonators is a series arm resonator, and at least one (3a- 3c) of the remaining one-terminal-pair surface acoustic wave resonators is a parallel arm resonator, the series arm resonator(s) (2a,2b) and the parallel arm resonator(s) (3a-3c) are coupled in a ladder arrangement, and the electrode duty ratio of the series arm resonator(s) (2a,2b) is smaller than the electrode duty ratio of the parallel arm resonator(s) (3a-3c), the electrode duty ratio of a one-terminal-pair surface acoustic wave resonator being defined by the following equation: electrode duty ratio = 2 × W / λ where λ denotes the wavelength of the one-terminal-pair surface acoustic wave resonator, and W denotes the line width of its interdigital electrode.