mhurhangee/ep-ind-claims huggingface dataset:
A circuit, comprising: a first secure circuit (210, 312) configured to receive an input and to produce a first output; a first delay circuit (230, 314) configured to receive the first output and to produce a first delayed output delayed by a time N; a second delay circuit (235, 320) configured to receive the input and to produce a delayed input delayed by a time N; a second secure circuit (215, 322) configured to receive the delayed input and to produce a second delayed output; a comparator (220, 340) configured to compare the first delayed output to the second delayed output and to produce a result (225, 350), wherein the result is one of the first delayed output or second delayed output when the first delayed output matches the second delayed output and the result is an error value when the first delayed output does not match the second delayed output; characterized in that the circuit further comprises: a third delay circuit (240, 345) configured to receive the result and to produce a delayed result delayed by a time M, and in that the value of N is periodically changed. a first secure circuit (210, 312) configured to receive an input and to produce a first output; a first delay circuit (230, 314) configured to receive the first output and to produce a first delayed output delayed by a time N; a second delay circuit (235, 320) configured to receive the input and to produce a delayed input delayed by a time N; a second secure circuit (215, 322) configured to receive the delayed input and to produce a second delayed output; a comparator (220, 340) configured to compare the first delayed output to the second delayed output and to produce a result (225, 350), wherein the result is one of the first delayed output or second delayed output when the first delayed output matches the second delayed output and the result is an error value when the first delayed output does not match the second delayed output; a third delay circuit (240, 345) configured to receive the result and to produce a delayed result delayed by a time M, and in that the value of N is periodically changed.
A method in a user equipment for communicating with a radio network node (12, 12') in a radio communications network, the user equipment being served by the radio network node (12, 12'), wherein the method comprises: - receiving a first information from the radio network node (12, 12') over a control channel, the first information comprising a pointer to a scheduling assignment element for the user equipment to use, wherein the scheduling assignment element is comprised of scheduling control information, and wherein the scheduling assignment element is comprised in a set of preconfigured scheduling control information stored at the user equipment; - retrieving a second information from the scheduling assignment element indicated by the pointer in the first information; and - communicating data with the radio network node (12, 12') using the second information, characterized in that, the received first information is comprised in a Downlink Control Information, DCI, format, wherein the DCI format comprises the first information and a reduced field of Modulation and Coding Scheme, wherein the reduced field of Modulation and Coding Scheme comprises fewer bits with first modulation and coding scheme information, wherein the first modulation and coding scheme information indicates a set of pre-configured coding and modulation schemes to be used in the DCI format, wherein the first modulation and coding scheme information allows fixed modulation pre-configuration and flexible adaptation of coding rates, and wherein the second information comprises second modulation and coding scheme information. - receiving a first information from the radio network node (12, 12') over a control channel, the first information comprising a pointer to a scheduling assignment element for the user equipment to use, wherein the scheduling assignment element is comprised of scheduling control information, and wherein the scheduling assignment element is comprised in a set of preconfigured scheduling control information stored at the user equipment; - retrieving a second information from the scheduling assignment element indicated by the pointer in the first information; and - communicating data with the radio network node (12, 12') using the second information,
A method of wireless communication operable on a user equipment, UE, the method comprising: transmitting, while operating in a stand-by state, an RRC message indicating support for high speed uplink communications; receiving, while operating in the stand-by state, a broadcast message comprising an information element, IE, configured to turn on an enhanced uplink feature of the UE to enable high speed uplink communications; and transmitting a signaling message in response to the receiving the broadcast message, wherein the transmitting the signaling message follows a withholding of the transmitting until an occurrence of a predetermined event comprising a determination that one or more uplink data packets are ready for transmission on a data channel and wherein the signaling message comprises a request for an identifier corresponding to the enhanced uplink feature. transmitting, while operating in a stand-by state, an RRC message indicating support for high speed uplink communications; receiving, while operating in the stand-by state, a broadcast message comprising an information element, IE, configured to turn on an enhanced uplink feature of the UE to enable high speed uplink communications; and transmitting a signaling message in response to the receiving the broadcast message, wherein the transmitting the signaling message follows a withholding of the transmitting until an occurrence of a predetermined event comprising a determination that one or more uplink data packets are ready for transmission on a data channel and wherein the signaling message comprises a request for an identifier corresponding to the enhanced uplink feature.
An exoskeleton subassembly comprising: - a first exoskeleton part, - a second exoskeleton part, - a connecting assembly connecting the first exoskeleton part to the second exoskeleton part, the connecting assembly comprising a guide fixedly mounted with respect to one of the first part and of the second part, and a pin fixedly mounted with respect to the other of the first part and of the second part, the pin being slidably mounted inside the guide between a first end position and a second end position, wherein the connecting assembly further comprises a limiting device arranged to allow rotation of the pin with respect to the guide when the pin is in the first end position, and to oppose rotation of the pin with respect to the guide when the pin is in the second end position, the limiting device comprising an elastic element with which the first exoskeleton part engages when the pin is in the second end position, characterized in that the elastic element exerts on the first exoskeleton part an elastic return force tending to oppose relative rotation between the first exoskeleton part and the second exoskeleton part both in a first direction of rotation and in a second direction of rotation, opposite to the first direction of rotation. - a first exoskeleton part, - a second exoskeleton part, - a connecting assembly connecting the first exoskeleton part to the second exoskeleton part, the connecting assembly comprising a guide fixedly mounted with respect to one of the first part and of the second part, and a pin fixedly mounted with respect to the other of the first part and of the second part, the pin being slidably mounted inside the guide between a first end position and a second end position,
A transformer comprising: a bobbin part including a plurality of bobbins (20,30), each including a pipe shaped body part (22;32) having a through-hole (21;31) formed in an inner part thereof and a respective flange part (23;33) protruding outwardly from each end of the body part (22;32); coils (50a;50b) respectively wound around the bobbins (20,30); and a core electromagnetically coupled to the coils (50a,50b) to thereby form a magnetic path, wherein at least one of the bobbins (20,30) includes a coil skip part (70; 170) which is a route through which lead wires of the coil skipped through the flange part are disposed on a lower surface of a lower flange part, wherein the coil skip part (70;170) includes: a skip groove, which is a route through which the lead wires of the coil wound around the body part extends to an outer surface of the flange part; and a traversing route, which is a route disposed so that the lead wires skipped through the skip groove traverse a lower surface of the flange part, wherein each of the bobbins (20,30) includes a terminal connection part (24,34) protruding from one end of at least one flange part (23,33) and having a plurality of external connection terminals (26,36) connected thereto, and wherein the coil skip part (70;170) is a route formed between a said terminal connection part and a guide block protruding from the outer surface of a said flange part in parallel with the terminal connection part. a bobbin part including a plurality of bobbins (20,30), each including a pipe shaped body part (22;32) having a through-hole (21;31) formed in an inner part thereof and a respective flange part (23;33) protruding outwardly from each end of the body part (22;32); coils (50a;50b) respectively wound around the bobbins (20,30); and a core electromagnetically coupled to the coils (50a,50b) to thereby form a magnetic path, wherein at least one of the bobbins (20,30) includes a coil skip part (70; 170) which is a route through which lead wires of the coil skipped through the flange part are disposed on a lower surface of a lower flange part, wherein the coil skip part (70;170) includes: a skip groove, which is a route through which the lead wires of the coil wound around the body part extends to an outer surface of the flange part; and a traversing route, which is a route disposed so that the lead wires skipped through the skip groove traverse a lower surface of the flange part, a skip groove, which is a route through which the lead wires of the coil wound around the body part extends to an outer surface of the flange part; and a traversing route, which is a route disposed so that the lead wires skipped through the skip groove traverse a lower surface of the flange part, wherein each of the bobbins (20,30) includes a terminal connection part (24,34) protruding from one end of at least one flange part (23,33) and having a plurality of external connection terminals (26,36) connected thereto, and wherein the coil skip part (70;170) is a route formed between a said terminal connection part and a guide block protruding from the outer surface of a said flange part in parallel with the terminal connection part.
A method for manufacturing an electrode which comprises the steps of: applying electrode slurry containing an electrode active material, a polymer binder and a conductive material dispersed in a solvent to one surface of an electrode current collector; stacking a polymer film onto the top surface coated with the electrode slurry; drying the electrode current collector having the polymer film stacked thereon to allow evaporation of the solvent; rolling the electrode current collector having the polymer film stacked thereon to obtain an electrode; and removing the polymer film. applying electrode slurry containing an electrode active material, a polymer binder and a conductive material dispersed in a solvent to one surface of an electrode current collector; stacking a polymer film onto the top surface coated with the electrode slurry; drying the electrode current collector having the polymer film stacked thereon to allow evaporation of the solvent; rolling the electrode current collector having the polymer film stacked thereon to obtain an electrode; and removing the polymer film.
An oil supply assembly (400;600) for a bearing damper (208;408;608) of a gas turbine engine, comprising: an oil supply tube (202;402;602) configured to supply oil in a first direction; and a bearing support (204;404;604) having a bearing damper path (218;418;618) connecting the bearing damper (208;408;608) to the oil supply tube (202;402;602) and a bearing compartment path (220;420;620) connecting a bearing compartment (210;410;610) to the oil supply tube (202;402;602); characterised by further comprising: a check valve (206;406;606) disposed within the bearing damper path (218;418;618) and configured to allow fluid communication in the first direction from the oil supply tube (202;402;602) to the bearing damper (208;408;608) and block fluid communication in a second direction opposite the first direction, wherein the oil supply tube (202;402;602) is connected to the check valve (206;406;606) by a connector (260;460;660), and the connector (260;460;660) comprises a ligament (216;416;616A,616B) configured to allow oil to pass through the ligament (216;416;616A,616B). an oil supply tube (202;402;602) configured to supply oil in a first direction; and a bearing support (204;404;604) having a bearing damper path (218;418;618) connecting the bearing damper (208;408;608) to the oil supply tube (202;402;602) and a bearing compartment path (220;420;620) connecting a bearing compartment (210;410;610) to the oil supply tube (202;402;602); characterised by further comprising: a check valve (206;406;606) disposed within the bearing damper path (218;418;618) and configured to allow fluid communication in the first direction from the oil supply tube (202;402;602) to the bearing damper (208;408;608) and block fluid communication in a second direction opposite the first direction, wherein the oil supply tube (202;402;602) is connected to the check valve (206;406;606) by a connector (260;460;660), and the connector (260;460;660) comprises a ligament (216;416;616A,616B) configured to allow oil to pass through the ligament (216;416;616A,616B).
A method of diagnosing trigeminal neuralgia in a human subject wherein said method comprises detecting the presence of one or more genetic variations within the CACNA1A gene and/or the CACNA1B gene of said subject.
An apparatus for reducing replays in an out-of-order processor, the apparatus comprising: a first reservation station, configured to dispatch a first load micro instruction, and configured to detect and indicate on a hold bus if said first load micro instruction is a specified load micro instruction directed to retrieve an operand from one of a plurality of prescribed resources other than on-core cache memory, wherein said specified load instruction requires more than a first number of clock cycles to retrieve said operand; a second reservation station, coupled to said hold bus, configured to dispatch one or more younger micro instructions therein that depend on said first load micro instruction for execution after said first number of clock cycles following dispatch of said first load micro instruction, and if it is indicated on said hold bus that said first load micro instruction is said specified load micro instruction, said second reservation station is configured to stall dispatch of said one or more younger micro instructions until said first load micro instruction has resolved and has retrieved said operand, and is configured to preclude assertion of any indications that would otherwise result in a replay event; and load execution logic, coupled to said first reservation station, configured to receive and execute said first load micro instruction. a first reservation station, configured to dispatch a first load micro instruction, and configured to detect and indicate on a hold bus if said first load micro instruction is a specified load micro instruction directed to retrieve an operand from one of a plurality of prescribed resources other than on-core cache memory, wherein said specified load instruction requires more than a first number of clock cycles to retrieve said operand; a second reservation station, coupled to said hold bus, configured to dispatch one or more younger micro instructions therein that depend on said first load micro instruction for execution after said first number of clock cycles following dispatch of said first load micro instruction, and if it is indicated on said hold bus that said first load micro instruction is said specified load micro instruction, said second reservation station is configured to stall dispatch of said one or more younger micro instructions until said first load micro instruction has resolved and has retrieved said operand, and is configured to preclude assertion of any indications that would otherwise result in a replay event; and load execution logic, coupled to said first reservation station, configured to receive and execute said first load micro instruction.
A method for producing a metal sheet by use of a rolling mill including at least two roll stands (S1-S6), the metal sheet including, on an upper surface or a lower surface, one or more raised lines extending in a rolling direction, the method comprising: a preparing step of preparing a grooved roll, the grooved roll including, in an outer peripheral surface, one or more grooves extending in a circumferential direction; a choosing step of choosing a roll stand (S1-S5) at least one stage before a last roll stand, from the roll stands (S1-S6); an incorporating step of incorporating the grooved roll in the rolling mill as an upper roll or a lower roll of the chosen, specified roll stand (S1-S6); and a forming step of rolling a workpiece by the rolling mill incorporating the grooved roll, thereby forming the workpiece into a metal sheet with raised lines formed corresponding to the respective grooves of the grooved roll, characterised in that in the forming step, until a leading edge of the workpiece reaches a roll stand (S2-S6) next to the specified roll stand (S1-S5), a maximum rolling reduction achieved by rolls of the specified roll stand (S1-S5) is set to a provisional value that is less than a required value, and immediately after the leading edge of the workpiece reaches the roll stand (S2-S5) next to the specified roll stand (S1-S5), the maximum rolling reduction achieved by the rolls of the specified roll stand (S1-S5) is changed to the required value; and the roll stand (S2-S6) next to the specified roll stand (S1-S5) is a non-rolling-performing stand for conveyance. a preparing step of preparing a grooved roll, the grooved roll including, in an outer peripheral surface, one or more grooves extending in a circumferential direction; a choosing step of choosing a roll stand (S1-S5) at least one stage before a last roll stand, from the roll stands (S1-S6); an incorporating step of incorporating the grooved roll in the rolling mill as an upper roll or a lower roll of the chosen, specified roll stand (S1-S6); and a forming step of rolling a workpiece by the rolling mill incorporating the grooved roll, thereby forming the workpiece into a metal sheet with raised lines formed corresponding to the respective grooves of the grooved roll, characterised in that in the forming step, until a leading edge of the workpiece reaches a roll stand (S2-S6) next to the specified roll stand (S1-S5), a maximum rolling reduction achieved by rolls of the specified roll stand (S1-S5) is set to a provisional value that is less than a required value, and immediately after the leading edge of the workpiece reaches the roll stand (S2-S5) next to the specified roll stand (S1-S5), the maximum rolling reduction achieved by the rolls of the specified roll stand (S1-S5) is changed to the required value; and
A loosely-coupled lock-step computing system comprising: a plurality of sensors (104, 106, 108) that detect or measure a physical property; a plurality of server groups (110, 112, 114) communicatively coupled to the plurality of sensors (104, 106, 108), wherein each server group is serially linked to another server group and comprises a plurality of server instances operating in virtual synchrony, and wherein the server instances of each server group performing respective diverse calculations as part of the server group such that not all instances of a server group perform a replicated calculation; and a virtual synchrony middleware communicatively coupled to each of the server groups (110, 112, 114), wherein the virtual synchrony middleware accepts a plurality of outputs from the plurality of server instances when operating with one of the server groups without requiring the outputs from the server instances to arrive at a same time and renders a single reply based on the plurality of outputs; wherein the virtual synchrony middleware replicates and orders incoming requests to the server groups (110, 112, 114) to ensure that each of the server instances of that server group receives the same incoming requests in the same order without requiring that the requests arrive at said middleware in the same order. a plurality of sensors (104, 106, 108) that detect or measure a physical property; a plurality of server groups (110, 112, 114) communicatively coupled to the plurality of sensors (104, 106, 108), wherein each server group is serially linked to another server group and comprises a plurality of server instances operating in virtual synchrony, and wherein the server instances of each server group performing respective diverse calculations as part of the server group such that not all instances of a server group perform a replicated calculation; and a virtual synchrony middleware communicatively coupled to each of the server groups (110, 112, 114), wherein the virtual synchrony middleware accepts a plurality of outputs from the plurality of server instances when operating with one of the server groups without requiring the outputs from the server instances to arrive at a same time and renders a single reply based on the plurality of outputs; wherein the virtual synchrony middleware replicates and orders incoming requests to the server groups (110, 112, 114) to ensure that each of the server instances of that server group receives the same incoming requests in the same order without requiring that the requests arrive at said middleware in the same order.