mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: configuring , by a network node, a group of discovery signaling blocks, where a discovery signaling block comprises at least a synchronization signal and a physical broadcast channel; mapping , by the network node, the discovery signaling blocks of the group onto a subframe structure; including , by the network node, mapping information and group information into each of the discovery signaling blocks for a user equipment to derive a group structure and the mapping of the discovery signaling blocks of the group onto the subframe structure, wherein the mapping information indicates where a discovery signaling block is located in the subframe structure and the group information comprises information on how many discovery signaling blocks are in the group; and transmitting , by the network node, the discovery signaling blocks in the subframe structure. configuring , by a network node, a group of discovery signaling blocks, where a discovery signaling block comprises at least a synchronization signal and a physical broadcast channel; mapping , by the network node, the discovery signaling blocks of the group onto a subframe structure; including , by the network node, mapping information and group information into each of the discovery signaling blocks for a user equipment to derive a group structure and the mapping of the discovery signaling blocks of the group onto the subframe structure, wherein the mapping information indicates where a discovery signaling block is located in the subframe structure and the group information comprises information on how many discovery signaling blocks are in the group; and transmitting , by the network node, the discovery signaling blocks in the subframe structure.
A method for deploying a smart contract, comprising: sending (S601), by a client device, a bytecode of the smart contract to a first trusted execution environment, TEE, and receiving a machine code obtained by Ahead of Time, AoT, compilation of the bytecode by the first TEE; receiving (S603), by a blockchain node, a transaction for creating the smart contract submitted by the client device, wherein the transaction comprises the machine code of the smart contract; and completing (S605), by the blockchain node, a deployment of the smart contract in response to determining that the machine code is obtained by compiling the bytecode by a trusted TEE, the determining comprising: obtaining, by the blockchain node, a signature of the machine code by the first TEE by using a private key from the transaction; and in response to determining that the signature is successfully verified by a public key corresponding to a predefined trusted TEE mirror image, the blockchain node determining that the first TEE is the trusted TEE. sending (S601), by a client device, a bytecode of the smart contract to a first trusted execution environment, TEE, and receiving a machine code obtained by Ahead of Time, AoT, compilation of the bytecode by the first TEE; receiving (S603), by a blockchain node, a transaction for creating the smart contract submitted by the client device, wherein the transaction comprises the machine code of the smart contract; and completing (S605), by the blockchain node, a deployment of the smart contract in response to determining that the machine code is obtained by compiling the bytecode by a trusted TEE, the determining comprising: obtaining, by the blockchain node, a signature of the machine code by the first TEE by using a private key from the transaction; and in response to determining that the signature is successfully verified by a public key corresponding to a predefined trusted TEE mirror image, the blockchain node determining that the first TEE is the trusted TEE. obtaining, by the blockchain node, a signature of the machine code by the first TEE by using a private key from the transaction; and in response to determining that the signature is successfully verified by a public key corresponding to a predefined trusted TEE mirror image, the blockchain node determining that the first TEE is the trusted TEE.
A brake lining for railway vehicle to be used for disc brake system for railway vehicle, the brake lining comprising: a base plate ; a sintered friction material into which a plurality of powder particles are sintered; and a friction material supporting mechanism that is disposed between the base plate and the sintered friction material and supports the sintered friction material , characterised in that the sintered friction material has a Young's modulus of 35.0 GPa or more. a base plate ; a sintered friction material into which a plurality of powder particles are sintered; and a friction material supporting mechanism that is disposed between the base plate and the sintered friction material and supports the sintered friction material , characterised in that the sintered friction material has a Young's modulus of 35.0 GPa or more.
A system for delivering radiofrequency ablation energy to a volume of tissue , the system characterised by comprising: a wrap, wherein a stiffening element surrounds an opening in the wrap, wherein the stiffening element transfers radial compression to the volume of tissue , wherein the radial compression increases stability of the volume of tissue ; and a radiofrequency ablation probe having an active electrode , wherein the radiofrequency ablation probe is connected to a radiofrequency generator via a lead . a wrap, wherein a stiffening element surrounds an opening in the wrap, wherein the stiffening element transfers radial compression to the volume of tissue , wherein the radial compression increases stability of the volume of tissue ; and a radiofrequency ablation probe having an active electrode , wherein the radiofrequency ablation probe is connected to a radiofrequency generator via a lead .
A load detector (K1), comprising: a strain generating body that includes a plate-shaped first fixing part fixable to a device , the device receiving a pressing operation by an operator, a plate-shaped second fixing part fixable to an actuator (A1) giving vibration to the device , and a strain part provided continuously between the plate-shaped first fixing part and the plate-shaped second fixing part , and integral with the plate-shaped first fixing part and the plate-shaped second fixing part ; a strain sensor that is disposed on the strain part and is configured to detect strain generated in the strain part due to displacement of the plate-shaped first fixing part in the plate thickness direction in accordance with the pressing operation; characterised that it further comprises: a regulating part comprising: a first portion extending from the plate-shaped first fixing part in a direction perpendicular to the direction in which the strain part and the plate-shaped first fixing part extend, and a second portion that extends from an end of the first portion in a direction perpendicular to the direction of the first portion. a strain generating body that includes a plate-shaped first fixing part fixable to a device , the device receiving a pressing operation by an operator, a plate-shaped second fixing part fixable to an actuator (A1) giving vibration to the device , and a strain part provided continuously between the plate-shaped first fixing part and the plate-shaped second fixing part , and integral with the plate-shaped first fixing part and the plate-shaped second fixing part ; a strain sensor that is disposed on the strain part and is configured to detect strain generated in the strain part due to displacement of the plate-shaped first fixing part in the plate thickness direction in accordance with the pressing operation; characterised that it further comprises: a regulating part comprising: a first portion extending from the plate-shaped first fixing part in a direction perpendicular to the direction in which the strain part and the plate-shaped first fixing part extend, and a second portion that extends from an end of the first portion in a direction perpendicular to the direction of the first portion.
A single-use applicator system for inserting a transcutaneous sensor into a host, the applicator system comprising: a sensor configured for transcutaneous placement through a skin of a host; a needle configured for inserting the sensor into the host, wherein the sensor is disposed within the needle prior to insertion into the host; a housing adapted for placement adjacent to the host's skin; and an applicator configured for inserting the needle and the sensor into the skin of the host along an axis of insertion, wherein the needle and the sensor are disposed within the applicator prior to insertion of the sensor; wherein the applicator is configured to insert the needle and the sensor into the skin of the host, to leave the sensor transcutaneously placed within the host, and to irreversibly retract the needle from the skin of the host into the applicator, and wherein the applicator is configured to releasably mate with the housing, characterised in that the sensor comprises electrodes which share the same central axis or electrodes and a membrane system which all share the same central axis, wherein the central axis is the axis of insertion. a sensor configured for transcutaneous placement through a skin of a host; a needle configured for inserting the sensor into the host, wherein the sensor is disposed within the needle prior to insertion into the host; a housing adapted for placement adjacent to the host's skin; and an applicator configured for inserting the needle and the sensor into the skin of the host along an axis of insertion, wherein the needle and the sensor are disposed within the applicator prior to insertion of the sensor; wherein the applicator is configured to insert the needle and the sensor into the skin of the host, to leave the sensor transcutaneously placed within the host, and to irreversibly retract the needle from the skin of the host into the applicator, and wherein the applicator is configured to releasably mate with the housing, characterised in that the sensor comprises electrodes which share the same central axis or electrodes and a membrane system which all share the same central axis, wherein the central axis is the axis of insertion.
A vane airfoil assembly comprising: an airfoil piece , comprising: a first airfoil platform ; a second airfoil platform ; and a hollow airfoil section joining the first airfoil platform and the second airfoil platform , the hollow airfoil section including a collar projection extending past the first airfoil platform , the collar projection including at least one radial tab projecting therefrom; a spar piece defines a spar platform and a spar extends from the spar platform into the hollow airfoil section , the spar piece including a radial pocket defined by first and second opposed faces, the radial pocket configured to receive the collar projection ; and characterized in that : the hollow airfoil includes first and second cavities separated by a divider , and wherein the at least one radial tab is at a circumferential location of collar projection that corresponds to a location of the divider . a first airfoil platform ; a second airfoil platform ; and a hollow airfoil section joining the first airfoil platform and the second airfoil platform , the hollow airfoil section including a collar projection extending past the first airfoil platform , the collar projection including at least one radial tab projecting therefrom; a spar piece defines a spar platform and a spar extends from the spar platform into the hollow airfoil section , the spar piece including a radial pocket defined by first and second opposed faces, the radial pocket configured to receive the collar projection ; and characterized in that : the hollow airfoil includes first and second cavities separated by a divider , and wherein the at least one radial tab is at a circumferential location of collar projection that corresponds to a location of the divider .
A process for purifying a vinyl chloride (PVC) polymer comprising at least one compound of a heavy metal, such as lead, according to which: a. PVC is dissolved in 2-Methyl-Tetrahydrofuran (MeTHF) in a stirred reactor; b. a process is carried out to separate the heavy metals from the PVC solution; c. the PVC is precipitated by adding to the PVC solution a precipitating mixture comprising water and a compatibilising agent, this agent increasing the miscibility of the water in MeTHF, d. a cake of precipitated PVC purified of the heavy metal compound is recovered. a. PVC is dissolved in 2-Methyl-Tetrahydrofuran (MeTHF) in a stirred reactor; b. a process is carried out to separate the heavy metals from the PVC solution; c. the PVC is precipitated by adding to the PVC solution a precipitating mixture comprising water and a compatibilising agent, this agent increasing the miscibility of the water in MeTHF, d. a cake of precipitated PVC purified of the heavy metal compound is recovered.
A method for generating a haptically enabled message by a mobile terminal device , comprising the steps of: receiving a user generated input; mapping the user generated input to a predetermined haptic effect and a corresponding haptic feedback command; inserting the haptic feedback command into a message comprising text; and sending the message, characterized in that : while the user is inputting text for the purposes of creating a message, the user generated input is received via a gesture comprising movement of the mobile terminal device that generates an accelerometer output; the accelerometer output is mapped to the predetermined haptic effect; the corresponding haptic feedback command is inserted into the message at a point which corresponds to when the user initiated the gesture and the predetermined haptic effect is played back on the mobile terminal device when the user generated input has been received and the accelerometer output has been mapped to the predetermined haptic effect. receiving a user generated input; mapping the user generated input to a predetermined haptic effect and a corresponding haptic feedback command; inserting the haptic feedback command into a message comprising text; and sending the message, characterized in that : while the user is inputting text for the purposes of creating a message, the user generated input is received via a gesture comprising movement of the mobile terminal device that generates an accelerometer output; the accelerometer output is mapped to the predetermined haptic effect; the corresponding haptic feedback command is inserted into the message at a point which corresponds to when the user initiated the gesture and the predetermined haptic effect is played back on the mobile terminal device when the user generated input has been received and the accelerometer output has been mapped to the predetermined haptic effect. while the user is inputting text for the purposes of creating a message, the user generated input is received via a gesture comprising movement of the mobile terminal device that generates an accelerometer output; the accelerometer output is mapped to the predetermined haptic effect; the corresponding haptic feedback command is inserted into the message at a point which corresponds to when the user initiated the gesture and the predetermined haptic effect is played back on the mobile terminal device when the user generated input has been received and the accelerometer output has been mapped to the predetermined haptic effect.
A testing system configured to determine at least one physical characteristic of a work piece, the testing system comprising: an effector frame configured for coupling with a manipulator assembly , the effector frame includes an effector interface configured for coupling with the manipulator assembly, and the effector frame includes at least one torque sensor; the testing system being characterized by : ballast bracket configured for coupling between at least one torque sensor and the work piece, the ballast bracket includes: a sensor interface coupled with the at least one torque sensor; and at least one work piece latch configured for coupling with the work piece; a movable ballast assembly coupled with the ballast bracket, the movable ballast assembly includes: a counter ballast movably coupled with the ballast bracket and movable relative to the at least one torque sensor; and a ballast actuator coupled with the counter ballast and configured to move the counter ballast relative to the at least one torque sensor. an effector frame configured for coupling with a manipulator assembly , the effector frame includes an effector interface configured for coupling with the manipulator assembly, and the effector frame includes at least one torque sensor; the testing system being characterized by : ballast bracket configured for coupling between at least one torque sensor and the work piece, the ballast bracket includes: a sensor interface coupled with the at least one torque sensor; and at least one work piece latch configured for coupling with the work piece; ballast bracket configured for coupling between at least one torque sensor and the work piece, the ballast bracket includes: a sensor interface coupled with the at least one torque sensor; and at least one work piece latch configured for coupling with the work piece; a movable ballast assembly coupled with the ballast bracket, the movable ballast assembly includes: a counter ballast movably coupled with the ballast bracket and movable relative to the at least one torque sensor; and a ballast actuator coupled with the counter ballast and configured to move the counter ballast relative to the at least one torque sensor. a counter ballast movably coupled with the ballast bracket and movable relative to the at least one torque sensor; and a ballast actuator coupled with the counter ballast and configured to move the counter ballast relative to the at least one torque sensor.
A system for managing a photovoltaic device (10; 100; 200), comprising: a voltage switching means , including: a first port being enabled to be coupled to the photovoltaic device (10; 100; 200); a second port being enabled to be coupled to a load driven by the photovoltaic device (10; 100; 200); and a third port being enabled to be coupled to a voltage source, wherein the voltage switching means is adapted to operate in a first position for providing a first current path between the photovoltaic device (10; 100; 200) and the voltage source, and a second position for providing a second current path between the photovoltaic device (10; 100; 200) and the load, and the system being adapted such that, during operation of the photovoltaic device, a voltage signal generated by the voltage source is applied to the photovoltaic device (10; 100; 200) such that the voltage signal has a first state for generating an external electric field across the photovoltaic device (10; 100; 200) when the voltage switching means is in the first position and has a second state when the voltage switching means is in the second position which effects electrical isolation between the voltage source and the load, wherein each first state forms a voltage pulse, whereby a series of voltage pulses is applied to the photovoltaic device, wherein a polarity of the voltage pulses corresponds to a polarity of a voltage generated by the photovoltaic device . a voltage switching means , including: a first port being enabled to be coupled to the photovoltaic device (10; 100; 200); a second port being enabled to be coupled to a load driven by the photovoltaic device (10; 100; 200); and a third port being enabled to be coupled to a voltage source, a first port being enabled to be coupled to the photovoltaic device (10; 100; 200); a second port being enabled to be coupled to a load driven by the photovoltaic device (10; 100; 200); and a third port being enabled to be coupled to a voltage source, wherein the voltage switching means is adapted to operate in a first position for providing a first current path between the photovoltaic device (10; 100; 200) and the voltage source, and a second position for providing a second current path between the photovoltaic device (10; 100; 200) and the load, and the system being adapted such that, during operation of the photovoltaic device, a voltage signal generated by the voltage source is applied to the photovoltaic device (10; 100; 200) such that the voltage signal has a first state for generating an external electric field across the photovoltaic device (10; 100; 200) when the voltage switching means is in the first position and has a second state when the voltage switching means is in the second position which effects electrical isolation between the voltage source and the load, wherein each first state forms a voltage pulse, whereby a series of voltage pulses is applied to the photovoltaic device, wherein a polarity of the voltage pulses corresponds to a polarity of a voltage generated by the photovoltaic device .
Insulation package for the thermal and acoustic insulation of an aircraft , comprising - a mat made of an insulation material, and - a wrapping sheet , completely enveloping the mat , the wrapping sheet having a plurality of drying openings , each of which is closable by a cover connected to the wrapping sheet , each cover having, at least zonally, a coating material which areal extent changes as a function of the relative humidity of the air inside the insulation package , so that each cover moves relative to the wrapping sheet as a function of this humidity, and wherein the covers are adapted to assume an orientation below a predetermined relative humidity which closes the associated drying opening and at higher relative humidities at least partially opens the associated drying opening . - a mat made of an insulation material, and - a wrapping sheet , completely enveloping the mat , the wrapping sheet having a plurality of drying openings , each of which is closable by a cover connected to the wrapping sheet , each cover having, at least zonally, a coating material which areal extent changes as a function of the relative humidity of the air inside the insulation package , so that each cover moves relative to the wrapping sheet as a function of this humidity, and
A manufacturing method of a multilayer syringe barrel , comprising: a finish cutting step of cutting a remaining gate of a nozzle portion of the multilayer syringe barrel that is injection-molded from a nozzle tip, with a cutting blade of an ultrasonic cutting apparatus including a mechanism for suppressing abnormal vibration; characterized by an irradiation step of irradiating a laser beam to a corner portion of the nozzle portion , the corner portion being formed in the finish cutting step. a finish cutting step of cutting a remaining gate of a nozzle portion of the multilayer syringe barrel that is injection-molded from a nozzle tip, with a cutting blade of an ultrasonic cutting apparatus including a mechanism for suppressing abnormal vibration; characterized by an irradiation step of irradiating a laser beam to a corner portion of the nozzle portion , the corner portion being formed in the finish cutting step.