mhurhangee/ep-ind-claims huggingface dataset:
A connector attachable to a cable, wherein: the connector comprises a plurality of terminals, a plurality of stoppers and a socket insulator; each of the terminals has a cylindrical part and a cable attachment part; the cable attachment part is a portion to be attached to the cable and positioned rearward of the cylindrical part in a front-rear direction; each of the stoppers is provided with a locked part and a lock spring part; the locked part is supported by the lock spring part; the lock spring part is resiliently deformable; the socket insulator is formed with a plurality of housing parts, a plurality of locking parts; the housing parts extend in the front-rear direction; the stoppers are inserted from behind in the socket insulator to be housed in the housing parts together with terminals, respectively; each of the housing parts has a front end portion which opens and is positioned forward of the cylindrical part in the front-rear direction; the locking parts are positioned rearward of the locked parts and regulate rearward movements of the stoppers, respectively, in a state that the stoppers are housed in the housing parts; characterized in that the stoppers are attached to the terminals, respectively; in that the socket insulator is further formed with a plurality of operation parts, the operation parts being operable in a predetermined direction intersecting the front-rear direction; and in that when operated, the operation parts move the locked parts along the predetermined direction to respectively release regulation of the locked parts caused by the operation parts. the connector comprises a plurality of terminals, a plurality of stoppers and a socket insulator; each of the terminals has a cylindrical part and a cable attachment part; the cable attachment part is a portion to be attached to the cable and positioned rearward of the cylindrical part in a front-rear direction; each of the stoppers is provided with a locked part and a lock spring part; the locked part is supported by the lock spring part; the lock spring part is resiliently deformable; the socket insulator is formed with a plurality of housing parts, a plurality of locking parts; the housing parts extend in the front-rear direction; the stoppers are inserted from behind in the socket insulator to be housed in the housing parts together with terminals, respectively; each of the housing parts has a front end portion which opens and is positioned forward of the cylindrical part in the front-rear direction; the locking parts are positioned rearward of the locked parts and regulate rearward movements of the stoppers, respectively, in a state that the stoppers are housed in the housing parts; characterized in that the stoppers are attached to the terminals, respectively; in that the socket insulator is further formed with a plurality of operation parts, the operation parts being operable in a predetermined direction intersecting the front-rear direction; and in that when operated, the operation parts move the locked parts along the predetermined direction to respectively release regulation of the locked parts caused by the operation parts.
A device management method, comprising: receiving, by a machine-to-machine communications platform, a resource access request sent by a machine-to-machine communications application by using a resource access interface, wherein the resource access request comprises: a uniform resource identifier, URI, that is used to indicate a storage position of an accessed management object data resource, and the accessed management object data resource is created on the machine-to-machine communications platform and corresponds to management object information on an machine-to-machine communications device; converting, by the machine-to-machine communications platform, according to pre-established mapping between the resource access request of the management object data resource and a device management command, the resource access request into a corresponding device management command, and determining, according to pre-established mapping between the management object data resource and the management object information, the management object information corresponding to the accessed management object data resource; and sending the device management command to the machine-to-machine communications device to manage the management object information corresponding to the accessed management object data. receiving, by a machine-to-machine communications platform, a resource access request sent by a machine-to-machine communications application by using a resource access interface, wherein the resource access request comprises: a uniform resource identifier, URI, that is used to indicate a storage position of an accessed management object data resource, and the accessed management object data resource is created on the machine-to-machine communications platform and corresponds to management object information on an machine-to-machine communications device; converting, by the machine-to-machine communications platform, according to pre-established mapping between the resource access request of the management object data resource and a device management command, the resource access request into a corresponding device management command, and determining, according to pre-established mapping between the management object data resource and the management object information, the management object information corresponding to the accessed management object data resource; and sending the device management command to the machine-to-machine communications device to manage the management object information corresponding to the accessed management object data.
Switching valve for controlling a hydraulic liquid stream, having a pick-off element which is arranged in a valve housing and which is able to be displaced selectively into a first switching position or a second switching position, wherein, in the first switching position, a first hydraulic port is connected to a supply port and, in the second switching position, a second hydraulic port is connected to the supply port, characterized in that there are provided in the pick-off element at least two through bores (31, 32) which extend through the pick-off element, wherein, in the first switching position, a fluidic connection is established between the first hydraulic port and the supply port by way of one of the through bores (31, 32) and, in the second switching position, a fluidic connection is established between the second hydraulic port and the supply port by way of another of the through bores (31, 32).
An aircraft wheel and brake assembly comprising a wheel (20; 63), a brake arranged to brake the wheel, and a measurement device (22; 60) arranged to measure the speed of rotation of the wheel, the brake comprising at least one friction member, an actuator support, and at least one brake actuator carried by the actuator support and arranged to exert a braking force selectively on the friction member, the measurement device comprising a target (30; 62) and a sensing component (31; 61) for producing a measurement signal representative of a speed of rotation of the target, the aircraft wheel and brake assembly being arranged in such a manner that, when the aircraft wheel and brake assembly is assembled, the target (30; 62) is constrained to rotate with the wheel and the sensing component is mounted on the actuator support, the target and the sensing component being arranged in such a manner that the sensing component detects rotation of the target.
A cutting tooth mounting system, comprising: a substrate having a base configured for attaching to a cutting wheel and a tooth mounting surface opposite the base; a plurality of tooth pockets integrally formed in the substrate having tooth receiving openings extending through the tooth mounting surface; each tooth pocket having an axis defining an attack angle, wherein the axis of the plurality of tooth pockets define at least three different attack angles (158a, 158b, 158c). a substrate having a base configured for attaching to a cutting wheel and a tooth mounting surface opposite the base; a plurality of tooth pockets integrally formed in the substrate having tooth receiving openings extending through the tooth mounting surface; each tooth pocket having an axis defining an attack angle, wherein the axis of the plurality of tooth pockets define at least three different attack angles (158a, 158b, 158c).
A system for gait intervention and fall prevention, the system comprising: a body suit having a plurality of distributed sensors and a vestibulo-muscular biostim array; an analytics module connected with the body suit and sensors, the analytics module operable for receiving sensor data and, based on the sensor data, analyzing a particular user's gait and predicting falls; and a closed-loop biostim control module operable for activating the vestibulo-muscular biostim array to compensate for a risk of a predicted fall. a body suit having a plurality of distributed sensors and a vestibulo-muscular biostim array; an analytics module connected with the body suit and sensors, the analytics module operable for receiving sensor data and, based on the sensor data, analyzing a particular user's gait and predicting falls; and a closed-loop biostim control module operable for activating the vestibulo-muscular biostim array to compensate for a risk of a predicted fall.
A communication method for communication between a host and a memory controller, the communication method comprising: generating, at the host, a transaction identification, TID, for a transaction using an incremental counter; generating a parity bit from parity of the TID and parity of a transaction command and data address for the transaction; comparing the parity bit to a parity bit sequences pattern and forcing the parity bit to match the parity bit sequences pattern; setting the matching parity bit to a host parity bit; transmitting the host parity bit along with the transaction command and data address from the host to the memory controller of a memory module; embedding, by the host, bits to specify a write transaction identification, WID, of a write transaction into error correcting codes, ECCs, of write data and transmitting the write data with the ECCs to the memory controller for transmission through a noisy memory channel with more errors; and reconstructing and/or retransmitting a generated write transaction by the host after detecting an ECC error caused by noise of the noisy memory channel. generating, at the host, a transaction identification, TID, for a transaction using an incremental counter; generating a parity bit from parity of the TID and parity of a transaction command and data address for the transaction; comparing the parity bit to a parity bit sequences pattern and forcing the parity bit to match the parity bit sequences pattern; setting the matching parity bit to a host parity bit; transmitting the host parity bit along with the transaction command and data address from the host to the memory controller of a memory module; embedding, by the host, bits to specify a write transaction identification, WID, of a write transaction into error correcting codes, ECCs, of write data and transmitting the write data with the ECCs to the memory controller for transmission through a noisy memory channel with more errors; and reconstructing and/or retransmitting a generated write transaction by the host after detecting an ECC error caused by noise of the noisy memory channel.
A method of preparing an ABS-based graft copolymer having improved impact strength, the method comprising: a) a step of polymerizing 100 parts by weight of a conjugated diene-based monomer, 0.5 to 5 parts by weight of an emulsifier, and 0.01 to 6 parts by weight of a water-soluble polymerization initiator; b) a step of adding 0.01 to 5 parts by weight of an emulsifier thereto when a polymerization conversion rate is 60 to 85 %, after step a); c) a step of terminating polymerization when a polymerization conversion rate is 90 to 99 % to obtain a large-diameter diene-based rubber latex; and d) a step of graft-polymerizing 100 parts by weight of a monomer mixture comprising 40 to 70 % by weight (based on solids) of the large-diameter diene-based rubber latex, 15 to 35 % by weight of an aromatic vinyl monomer, and 5 to 25 % by weight of a vinyl cyan monomer with 0.01 to 3 parts by weight of an emulsifier, 0.01 to 3 parts by weight of an initiator, and 0.001 to 1 part by weight of an oxidation-reduction catalyst, wherein the emulsifiers of steps a) and d) are a multimeric acid of an unsaturated fatty acid or a metal salt thereof.
A cardiac function measurement system that is disposed in an extracorporeal circulator and that is configured to measure a cardiac function of a patient, wherein the cardiac function measurement system is configured to detect a rotation speed of a pump configured to remove blood from the patient and return the blood to the patient, to determine a discharge pressure of the pump based on the rotation speed, to determine a withdrawal reference flow rate indicating a theoretical flow rate of the blood transferred from the pump based on the discharge pressure, characterized in that said cardiac function measurement system is also configured to determine a measured blood transfer flow rate indicating a realistic flow rate of the blood based on a measurement result of a flow rate measurement unit configured to measure a flow rate of the blood flowing through a circulation circuit of the extracorporeal circulator, calculate a difference parameter representing a difference between the withdrawal reference flow rate and the measured blood transfer flow rate, determine the withdrawal timing of the extracorporeal circulator based on the parameter, and when the withdrawal timing is determined, a notification that the withdrawal timing is appropriate is displayed on a display unit. the cardiac function measurement system is configured to detect a rotation speed of a pump configured to remove blood from the patient and return the blood to the patient, to determine a discharge pressure of the pump based on the rotation speed, to determine a withdrawal reference flow rate indicating a theoretical flow rate of the blood transferred from the pump based on the discharge pressure, to detect a rotation speed of a pump configured to remove blood from the patient and return the blood to the patient, to determine a discharge pressure of the pump based on the rotation speed, to determine a withdrawal reference flow rate indicating a theoretical flow rate of the blood transferred from the pump based on the discharge pressure, characterized in that said cardiac function measurement system is also configured to determine a measured blood transfer flow rate indicating a realistic flow rate of the blood based on a measurement result of a flow rate measurement unit configured to measure a flow rate of the blood flowing through a circulation circuit of the extracorporeal circulator, calculate a difference parameter representing a difference between the withdrawal reference flow rate and the measured blood transfer flow rate, to determine a measured blood transfer flow rate indicating a realistic flow rate of the blood based on a measurement result of a flow rate measurement unit configured to measure a flow rate of the blood flowing through a circulation circuit of the extracorporeal circulator, calculate a difference parameter representing a difference between the withdrawal reference flow rate and the measured blood transfer flow rate, determine the withdrawal timing of the extracorporeal circulator based on the parameter, and when the withdrawal timing is determined, a notification that the withdrawal timing is appropriate is displayed on a display unit.
Method for transmitting address, diagnosis and/or configuration information between an infrastructure device (12, 13, 14, 15), connected to a communication network, and a diagnosis device, in which - the address, diagnosis and/or configuration information is associated with the infrastructure device connected to the communication network, - device or communication status information of the infrastructure device is signalled by means of multiple light emitting diodes on the infrastructure device, - the address, diagnosis and/or configuration information is signalled as an overlaid coded signal sequence and/or as an amplitude-modulated, frequency-modulated and/or phase-modulated overlaid signal by at least one prescribed light emitting diode in addition to displayed device or communication status information, - the light emitting diodes on the infrastructure device are optically scanned by the diagnosis device by means of a camera, - the at least one prescribed light emitting diode that signals the address, diagnosis and/or configuration information is identified via the diagnosis device on the basis of a coding of the symbol sequence comprising the address, diagnosis and/or configuration information and/or on the basis of a modulation of the overlaid signal, - the at least one identified light emitting diode is optically scanned by means of the camera of the diagnosis device and the address, diagnosis and/or configuration information from a scanned coded symbol sequence and/or from an overlaid modulated signal is ascertained by the diagnosis device. - the address, diagnosis and/or configuration information is associated with the infrastructure device connected to the communication network, - device or communication status information of the infrastructure device is signalled by means of multiple light emitting diodes on the infrastructure device, - the address, diagnosis and/or configuration information is signalled as an overlaid coded signal sequence and/or as an amplitude-modulated, frequency-modulated and/or phase-modulated overlaid signal by at least one prescribed light emitting diode in addition to displayed device or communication status information, - the light emitting diodes on the infrastructure device are optically scanned by the diagnosis device by means of a camera, - the at least one prescribed light emitting diode that signals the address, diagnosis and/or configuration information is identified via the diagnosis device on the basis of a coding of the symbol sequence comprising the address, diagnosis and/or configuration information and/or on the basis of a modulation of the overlaid signal, - the at least one identified light emitting diode is optically scanned by means of the camera of the diagnosis device and the address, diagnosis and/or configuration information from a scanned coded symbol sequence and/or from an overlaid modulated signal is ascertained by the diagnosis device.
An optical processing device configured for use in an optical communications network, comprising: a first birefringent element, imparting a first phase shift to light passing therethrough; and a second birefringent element disposed serially to said first element to allow a light beam to pass through both elements sequentially, said second element having an array of pixels with electrodes, each activatable by means of an applied electrical control signal to impart a second controllable phase shift to light traversing said pixel; wherein said first and said second elements are mutually aligned such that a first total phase shift is imparted to light traversing said device through any one of the plurality of pixels when that pixel is unactivated, and a second total phase shift is imparted when that pixel is activated, characterised in that the device is configured such that a different wavelength of light traverses each pixel, and is further configured to provide a respective control signal for each pixel in dependence on the wavelength of light traversing the device through that pixel, and such that said first total phase shift is zero, and said respective control signal results in said second total phase shift is a π or π/2 phase shift. a first birefringent element, imparting a first phase shift to light passing therethrough; and a second birefringent element disposed serially to said first element to allow a light beam to pass through both elements sequentially, said second element having an array of pixels with electrodes, each activatable by means of an applied electrical control signal to impart a second controllable phase shift to light traversing said pixel; wherein said first and said second elements are mutually aligned such that a first total phase shift is imparted to light traversing said device through any one of the plurality of pixels when that pixel is unactivated, and a second total phase shift is imparted when that pixel is activated, characterised in that the device is configured such that a different wavelength of light traverses each pixel, and is further configured to provide a respective control signal for each pixel in dependence on the wavelength of light traversing the device through that pixel, and such that said first total phase shift is zero, and said respective control signal results in said second total phase shift is a π or π/2 phase shift.
A secondary payload interface for secondary payload communications using a primary payload communications channel, the secondary payload interface comprising: a first coupler and a second coupler arranged for coupling a secondary payload communications channel from a secondary payload into a transponder path of the primary payload communications channel; a decryption module arranged for decrypting an input signal to the secondary payload; and an encryption module arranged for encrypting an output signal from the secondary payload, wherein the first coupler is arranged to receive the primary payload communications channel as an input and is coupled to the second coupler to provide a transmission path of the primary communications channel from the first coupler to the second coupler, wherein the first coupler is arranged to separate a portion of the primary payload communications channel received at the first coupler as an input signal to the decryption module, wherein the second coupler is arranged to receive an output signal from the encryption module and combine it with the primary payload communications channel received from the first coupler as an output at the second coupler. a first coupler and a second coupler arranged for coupling a secondary payload communications channel from a secondary payload into a transponder path of the primary payload communications channel; a decryption module arranged for decrypting an input signal to the secondary payload; and an encryption module arranged for encrypting an output signal from the secondary payload, wherein the first coupler is arranged to receive the primary payload communications channel as an input and is coupled to the second coupler to provide a transmission path of the primary communications channel from the first coupler to the second coupler, wherein the first coupler is arranged to separate a portion of the primary payload communications channel received at the first coupler as an input signal to the decryption module, wherein the second coupler is arranged to receive an output signal from the encryption module and combine it with the primary payload communications channel received from the first coupler as an output at the second coupler.