mhurhangee/ep-ind-claims huggingface dataset:
A single crystal pulling apparatus comprising: a crucible unit including a crucible (2, 4, 25) and a tray (5, 26) for securing and holding the crucible from below; and a crucible rotating shaft (6, 27) for supporting the tray from below and for elevating and lowering the tray and the crucible while rotating the tray and the crucible, the single crystal pulling apparatus having a gap formed between the tray and the crucible rotating shaft, and the gap having the size of 2 mm or greater and less than 50 mm, characterized in that a low heat conductive member for suppressing heat conduction from the crucible to the crucible rotating shaft is interposed so as to form the gap, the low heat conductive member being provided separate from both the tray and the crucible rotating shaft and having an annular shape or a disk shape; the gap and the low heat conductive member are disposed such that the tray and the crucible rotating shaft do not make direct contact with each other; and the low heat conductive member comprises a one-dimensional carbon fiber-reinforced carbon composite material or a two-dimensional carbon fiber-reinforced carbon composite material. a crucible unit including a crucible (2, 4, 25) and a tray (5, 26) for securing and holding the crucible from below; and a crucible rotating shaft (6, 27) for supporting the tray from below and for elevating and lowering the tray and the crucible while rotating the tray and the crucible, the single crystal pulling apparatus having a gap formed between the tray and the crucible rotating shaft, and the gap having the size of 2 mm or greater and less than 50 mm, characterized in that a low heat conductive member for suppressing heat conduction from the crucible to the crucible rotating shaft is interposed so as to form the gap, the low heat conductive member being provided separate from both the tray and the crucible rotating shaft and having an annular shape or a disk shape; the gap and the low heat conductive member are disposed such that the tray and the crucible rotating shaft do not make direct contact with each other; and the low heat conductive member comprises a one-dimensional carbon fiber-reinforced carbon composite material or a two-dimensional carbon fiber-reinforced carbon composite material.
A method of manufacturing a capacitive micro-machined transducer, in particular a CMUT, the method comprising: - depositing a first electrode layer on a substrate, - depositing a first dielectric film on the first electrode layer, - depositing a sacrificial layer on the first dielectric film, the sacrificial layer being removable for forming a cavity of the transducer, - depositing a second dielectric film on the sacrificial layer, and - depositing a second electrode layer on the second dielectric film, wherein the first dielectric film and/or the second dielectric film comprises a first layer comprising an oxide, a second layer comprising a high-k material having a dielectric constant equal to 8 or more, and a third layer comprising an oxide, and wherein the second layer is sandwiched between the first and the third layer, and characterized in that the depositing steps are performed by Atomic Layer Deposition, and wherein the second layer comprises a first sublayer comprising Aluminum Oxide, a second sublayer comprising Hafnium Oxide, and a third sublayer comprising Aluminium Oxide. - depositing a first electrode layer on a substrate, - depositing a first dielectric film on the first electrode layer, - depositing a sacrificial layer on the first dielectric film, the sacrificial layer being removable for forming a cavity of the transducer, - depositing a second dielectric film on the sacrificial layer, and - depositing a second electrode layer on the second dielectric film, wherein the first dielectric film and/or the second dielectric film comprises a first layer comprising an oxide, a second layer comprising a high-k material having a dielectric constant equal to 8 or more, and a third layer comprising an oxide, and wherein the second layer is sandwiched between the first and the third layer, and characterized in that the depositing steps are performed by Atomic Layer Deposition, and wherein the second layer comprises a first sublayer comprising Aluminum Oxide, a second sublayer comprising Hafnium Oxide, and a third sublayer comprising Aluminium Oxide.
A system for recovering an underwater vehicle, wherein the system includes a recovery ramp for hauling in the underwater vehicle using a cable for pulling the underwater vehicle and, using the recovery ramp, pulling the underwater vehicle out of a body of water on board a ship or onto land, characterised by a wave compensation ramp for receiving the underwater vehicle and for hauling in the wave compensation ramp together with the received underwater vehicle using the recovery ramp, which wave compensation ramp is pivotably supported on the recovery ramp about a pivot axis relative to the recovery ramp and supported by a floating body (36, 38).
A method of configuring a wireless receiver, comprising: - determining a geometry factor for a channel over which signals are transmitted to the wireless receiver, the geometry factor being a measure indicative of inter-cell interference plus noise power at the wireless receiver; - determining the variance of the determined geometry factor, the variance being a measure indicative of the variation in time or rate of change of the geometry factor; and - configuring the wireless receiver based on the geometry factor and the variance of the geometry factor. - determining a geometry factor for a channel over which signals are transmitted to the wireless receiver, the geometry factor being a measure indicative of inter-cell interference plus noise power at the wireless receiver; - determining the variance of the determined geometry factor, the variance being a measure indicative of the variation in time or rate of change of the geometry factor; and - configuring the wireless receiver based on the geometry factor and the variance of the geometry factor.
A method of wireless communication, comprising: establishing a codebook for use in sparse code multiple access, SCMA, communication, the codebook used for mapping input bits for transmission to a codeword including: setting the codebook for at least one layer to include: a constellation of points having a first grouping of constellation points located at first radial distance from an origin in a complex plane; and a second grouping of constellation points located at a second radial distance from the origin; wherein each constellation point represents a predetermined binary value characterized in that: binary values for corresponding constellation points between a first non-zero entry and a second non-zero entry for the at least one layer are Gray coded. a constellation of points having a first grouping of constellation points located at first radial distance from an origin in a complex plane; and a second grouping of constellation points located at a second radial distance from the origin; wherein each constellation point represents a predetermined binary value characterized in that:
A neuromodulation system for inducing locomotor activity in a mammal, the neuromodulation system comprising: a processor; a signal generator (304, 306) communicatively coupled to the processor; at least one transcutaneous electrode and a second electrode electrically coupled to the signal generator; and at least one electromyography electrode communicatively coupled to the processor; and a memory device storing instructions which when executed by the processor, adapted to cause the processor, in cooperation with the signal generator (304, 306) and the at least one transcutaneous electrode and the second electrode, to deliver a signal to a portion of a spinal cord and/or the brainstem related to neurological tissue of the mammal, said signal having parameter values including a 1 - 100 Hz bipolar stimulus, at 0 - 300 mA, having a pulse duration between 0.3 and 1 ms, and filled with overlapping high frequency pulses at 5 - 10 kHz; wherein the at least one electromyography electrode is adapted to measure a response related to delivery of the signal to the mammal, and wherein the processor is configured to synchronize the parameter values of the signal with the response measured by the at least one electromyography electrode and store to the memory the synchronization for selection of new parameter values to deliver a subsequent signal. a processor; a signal generator (304, 306) communicatively coupled to the processor; at least one transcutaneous electrode and a second electrode electrically coupled to the signal generator; and at least one electromyography electrode communicatively coupled to the processor; and a memory device storing instructions which when executed by the processor, adapted to cause the processor, in cooperation with the signal generator (304, 306) and the at least one transcutaneous electrode and the second electrode, to deliver a signal to a portion of a spinal cord and/or the brainstem related to neurological tissue of the mammal, said signal having parameter values including a 1 - 100 Hz bipolar stimulus, at 0 - 300 mA, having a pulse duration between 0.3 and 1 ms, and filled with overlapping high frequency pulses at 5 - 10 kHz; wherein the at least one electromyography electrode is adapted to measure a response related to delivery of the signal to the mammal, and wherein the processor is configured to synchronize the parameter values of the signal with the response measured by the at least one electromyography electrode and store to the memory the synchronization for selection of new parameter values to deliver a subsequent signal.
Fire extinguishing drill, comprising: - a tool holder configured for receiving a tool or for connecting to a tool, - a fluid connection configured for supplying a fluid; - a turbine having an impeller comprising at least one stage of a plurality of impeller blades and connected to or connectable to the tool holder, to rotatingly and/or impactingly drive the same in a driving mode using the fluid supplied via the fluid connection as drive fluid; - at least one discharge opening formed in a stationary wall of the fire extinguishing drill and communicating with a preferably annular fluid chamber formed downstream of the impeller blades of the turbine, and forming a first flow path sized to deliver the fluid used as the working fluid for operating the turbine in the drive mode to a vicinity of the fire extinguishing drill, and/or a nozzle assembly having one or more nozzles formed in a stationary wall of the fire extinguishing drill for delivering the fluid, and communicating with a preferably annular fluid chamber formed downstream of the impeller blades of the turbine to form a preferably second flow path in a fire extinguishing mode, to deliver the fluid into a space surrounding the fire extinguishing drill as a fire extinguishing fluid after it has passed through the turbine, - wherein the turbine is an axial turbine or a pipe turbine and the fluid connection provides an axial inflow of the fluid into the fire extinguishing drill. - a tool holder configured for receiving a tool or for connecting to a tool, - a fluid connection configured for supplying a fluid; - a turbine having an impeller comprising at least one stage of a plurality of impeller blades and connected to or connectable to the tool holder, to rotatingly and/or impactingly drive the same in a driving mode using the fluid supplied via the fluid connection as drive fluid; - at least one discharge opening formed in a stationary wall of the fire extinguishing drill and communicating with a preferably annular fluid chamber formed downstream of the impeller blades of the turbine, and forming a first flow path sized to deliver the fluid used as the working fluid for operating the turbine in the drive mode to a vicinity of the fire extinguishing drill, and/or a nozzle assembly having one or more nozzles formed in a stationary wall of the fire extinguishing drill for delivering the fluid, and communicating with a preferably annular fluid chamber formed downstream of the impeller blades of the turbine to form a preferably second flow path in a fire extinguishing mode, to deliver the fluid into a space surrounding the fire extinguishing drill as a fire extinguishing fluid after it has passed through the turbine, - wherein the turbine is an axial turbine or a pipe turbine and the fluid connection provides an axial inflow of the fluid into the fire extinguishing drill.
Valve-actuating device, comprising a manual operating element and a valve which can be actuated by means of the manual operating element, wherein a control element is operatively connected to the manual operating element, wherein the valve can be actuated by a distal end of the control element, and a compensating device is arranged in operative connection between the control element and the manual operating element, which compensating device has a plunger, which is movably guided in a receptacle, and allows a relative movement of the manual operating element with respect to the control element, and wherein a restoring element is present which counters the relative movement with a restoring force, characterized in that the restoring element is arranged outside the compensating device.
A device comprising: a determination unit configured to determine whether transmission timing of a first frame received from a communication terminal is a first timing in an intra-body communication system; a timing decision unit configured to decide timing to transmit a second frame to the communication terminal on the basis of a determination result by the determination unit; wherein each of the frames has a frame format based on ECMA-401 standard; and characterized in that the determination unit determines that the first frame is transmitted at the first timing when TDS Number in the frame format of the first frame is TDS0 to 3, and determines that the first frame is transmitted at timing other than the first timing when TDS Number in the frame format of the first frame is TDS4 to 7. a determination unit configured to determine whether transmission timing of a first frame received from a communication terminal is a first timing in an intra-body communication system; a timing decision unit configured to decide timing to transmit a second frame to the communication terminal on the basis of a determination result by the determination unit; wherein each of the frames has a frame format based on ECMA-401 standard; and characterized in that the determination unit determines that the first frame is transmitted at the first timing when TDS Number in the frame format of the first frame is TDS0 to 3, and determines that the first frame is transmitted at timing other than the first timing when TDS Number in the frame format of the first frame is TDS4 to 7.
An apparatus for repairing bones usable to secure an orthopedic plate to a first bone segment and a second bone segment for coupling the first bone segment to the second bone segment, the apparatus comprising: a jig having a first arm securable to the first bone segment, a second arm securable to the second bone segment, and a jig adjustment mechanism adjustable to move the position of the first arm with respect to the second arm to adjust a distance between the first bone segment and the second bone segment when the first arm is secured to the first bone segment and the second arm is secured to the second bone segment; an orthopedic plate securable to the first bone segment and the second bone segment; a plate holding mechanism removably coupled to the jig, the orthopedic plate removeably coupled to the jig by the plate holding mechanism without contacting the first arm of the jig or the second arm of the jig and the plate holding mechanism having a vertical adjustment mechanism to move the plate vertically and perpendicularly to the direction of adjustment of distance and a horizontal adjustment mechanism to move the plate horizontally and perpendicularly to the direction of adjustment of distance, wherein by using the vertical adjustment mechanism and the horizontal adjustment mechanism, the position of the orthopedic plate is able to be adjusted with respect to the first and second bone segments (28,30) while the first arm of the jig is secured to the first bone segment and the second arm of the jig is secured to the second bone segment. a jig having a first arm securable to the first bone segment, a second arm securable to the second bone segment, and a jig adjustment mechanism adjustable to move the position of the first arm with respect to the second arm to adjust a distance between the first bone segment and the second bone segment when the first arm is secured to the first bone segment and the second arm is secured to the second bone segment; an orthopedic plate securable to the first bone segment and the second bone segment; a plate holding mechanism removably coupled to the jig, the orthopedic plate removeably coupled to the jig by the plate holding mechanism without contacting the first arm of the jig or the second arm of the jig and the plate holding mechanism having a vertical adjustment mechanism to move the plate vertically and perpendicularly to the direction of adjustment of distance and a horizontal adjustment mechanism to move the plate horizontally and perpendicularly to the direction of adjustment of distance, wherein by using the vertical adjustment mechanism and the horizontal adjustment mechanism, the position of the orthopedic plate is able to be adjusted with respect to the first and second bone segments (28,30) while the first arm of the jig is secured to the first bone segment and the second arm of the jig is secured to the second bone segment.
A device for supporting a separately placed surgical line, the device comprising: a base having an opening therein for receiving a separately placed first surgical line extending from a subject; a connector mounted to the base and having a first end for connection to an end of the said first surgical line and a second end for connection to a second line; a housing extending from the base, the housing arranged to form an enclosure for the base and for the opening in the base; wherein the connector extends through the housing, the first end of the connector being within the housing and the second end of the connector being outside the housing; the housing and enclosure are arranged to provide clearance spacing between a first surgical line extending from a patient and a first end of the connector, and wherein the clearance spacing is configured such that the said first surgical line may be connected to the connector and coiled within the housing. a base having an opening therein for receiving a separately placed first surgical line extending from a subject; a connector mounted to the base and having a first end for connection to an end of the said first surgical line and a second end for connection to a second line; a housing extending from the base, the housing arranged to form an enclosure for the base and for the opening in the base; wherein the connector extends through the housing, the first end of the connector being within the housing and the second end of the connector being outside the housing; the housing and enclosure are arranged to provide clearance spacing between a first surgical line extending from a patient and a first end of the connector, and wherein the clearance spacing is configured such that the said first surgical line may be connected to the connector and coiled within the housing.
A method for configuring transmission, being executed by a terminal, the method comprising: receiving configuration information for synchronization signal and physical broadcast channel block SSB measurement from a base station; performing an SSB measurement based on the configuration information for SSB measurement, to obtain an SSB measurement report; sending the SSB measurement report to the base station through a first message, to allow the base station to configure a set of transmission configuration indication TCI states for the terminal based on the SSB measurement report, wherein the first message is configured to represent contention resolution during a random access procedure; receiving a second message for representing successful contention resolution sent by the base station; and receiving a radio resource control RRC signaling from the base station, wherein the RRC signaling comprises a first set of TCI states for receiving physical downlink control channel PDCCH and/or a second set of TCI states for receiving physical downlink shared channel PDSCH, the first set of TCI states and the second set of TCI states are configured by the base station for the terminal, the first set of TCI states comprise first correspondences, each first correspondence is between a TCI state identifier for receiving PDCCH and an SSB identifier, the second set of TCI states comprise second correspondences, and each second correspondence is between a TCI state identifier for receiving PDSCH and an SSB identifier. receiving configuration information for synchronization signal and physical broadcast channel block SSB measurement from a base station; performing an SSB measurement based on the configuration information for SSB measurement, to obtain an SSB measurement report; sending the SSB measurement report to the base station through a first message, to allow the base station to configure a set of transmission configuration indication TCI states for the terminal based on the SSB measurement report, wherein the first message is configured to represent contention resolution during a random access procedure; receiving a second message for representing successful contention resolution sent by the base station; and receiving a radio resource control RRC signaling from the base station, wherein the RRC signaling comprises a first set of TCI states for receiving physical downlink control channel PDCCH and/or a second set of TCI states for receiving physical downlink shared channel PDSCH, the first set of TCI states and the second set of TCI states are configured by the base station for the terminal, the first set of TCI states comprise first correspondences, each first correspondence is between a TCI state identifier for receiving PDCCH and an SSB identifier, the second set of TCI states comprise second correspondences, and each second correspondence is between a TCI state identifier for receiving PDSCH and an SSB identifier.