mhurhangee/patent-ind-claim-en huggingface dataset:
Locking device comprising: - a support , - a first locking member (20, 20', 20") and a second locking member (30, 30', 30"), the first locking member (20, 20', 20") being mounted on the support so as to move between a locked position and an unlocked position, the first locking member (20, 20', 20") engaging with the second locking member when in the locked position, - a shape-memory member having a first length (L 1 ) when not activated and a second length (L 2 ) when activated, - an intermediate member movable between a retaining position and a release position, the intermediate member in the retaining position retaining the first locking member (20, 20', 20") in the locked position and the intermediate member in the release position allowing the first locking member (20, 20', 20") to move to the unlocked position, and - the shape-memory member is connected to the intermediate member so as to move the intermediate member to the release position when the shape-memory member is activated, and - a return device (44, (48' and 45')), the return device (44, 48' and 45')) biases the intermediate member towards the retaining position, characterized in that the intermediate member abuts against the support when in the retaining position. - a support , - a first locking member (20, 20', 20") and a second locking member (30, 30', 30"), the first locking member (20, 20', 20") being mounted on the support so as to move between a locked position and an unlocked position, the first locking member (20, 20', 20") engaging with the second locking member when in the locked position, - a shape-memory member having a first length (L 1 ) when not activated and a second length (L 2 ) when activated, - an intermediate member movable between a retaining position and a release position, the intermediate member in the retaining position retaining the first locking member (20, 20', 20") in the locked position and the intermediate member in the release position allowing the first locking member (20, 20', 20") to move to the unlocked position, and - the shape-memory member is connected to the intermediate member so as to move the intermediate member to the release position when the shape-memory member is activated, and - a return device (44, (48' and 45')), the return device (44, 48' and 45')) biases the intermediate member towards the retaining position, characterized in that the intermediate member abuts against the support when in the retaining position.
A PZT transducer-horn integrated ultrasonic driving structure, comprising a nut , a bolt , a left PZT circular stack , a flange , a right PZT truncated stack and a horn , herein the horn , the right PZT truncated stack , the flange and the left PZT circular stack are arranged in sequence and connected via the bolt and then fastened via the nut ; the right PZT truncated stack is a truncated cone-shaped stack formed by PZT circular plates, and the right PZT truncated stack and the horn are integrated to form the ultrasonic driving structure; wherein, the dimension of the left PZT circular stack and the right PZT truncated stack on the left and right sides of the flange respectively and the horn are configured to meet the requirements for ultrasonic vibration node and antinode, the dimension of round contour of the PZT circular plates of the right PZT truncated stack and the flange is reduced along the length of the PZT transducer-horn integrated ultrasonic driving structure from the flange to the horn , such that the right PZT truncated stack is designed and assembled to be an integral part of the horn , and the outer diameter of the ultrasonic driving structure is relatively reduced, the reduced dimension of round contour converts to the thickness of the right PZT truncated stack and the flange .
An electric vacuum cleaner comprising: a main body case including an electric blower , and a dust collecting portion communicating with a suction side of the electric blower ; a driving wheel allowing the main body case to travel on a surface to be cleaned; and a cleaning portion including a main body portion with a bottom surface portion facing the surface to be cleaned, being capable of moving up and down, a suction port provided on the bottom surface portion being configured to communicate with the dust collecting portion , and a gap retaining member configured to protrude downward from the bottom surface portion to contact the surface to be cleaned, thereby causing the main body portion to move up and down in such a way as to trace the surface to be cleaned, wherein the gap retaining member is arranged at a front position of the suction port in the main body portion , characterized in that the main body portion is located in a lower portion inside of a profile of the main body case and is journaled at a rear position of the suction port so as to be capable of moving up and down with respect to the main body case . a main body case including an electric blower , and a dust collecting portion communicating with a suction side of the electric blower ; a driving wheel allowing the main body case to travel on a surface to be cleaned; and a cleaning portion including a main body portion with a bottom surface portion facing the surface to be cleaned, being capable of moving up and down, a suction port provided on the bottom surface portion being configured to communicate with the dust collecting portion , and a gap retaining member configured to protrude downward from the bottom surface portion to contact the surface to be cleaned, thereby causing the main body portion to move up and down in such a way as to trace the surface to be cleaned, wherein the gap retaining member is arranged at a front position of the suction port in the main body portion , characterized in that the main body portion is located in a lower portion inside of a profile of the main body case and is journaled at a rear position of the suction port so as to be capable of moving up and down with respect to the main body case .
A method comprising: determining that a configuration option for a computing system has been selected to enable a first operating mode where data stored in volatile processor caches are part of a persistent memory state; determining, by the computing system , whether hardware components of the computing system are capable of supporting persistent cache flushing, wherein firmware executing on the computing system is configured to not advertise support for the first operating mode to an operating system if the hardware components are not capable of supporting persistent cache flushing even if the configuration option to enable the first operating mode has been selected; and responsive to determining that the first operating mode is enabled and the hardware components are capable of supporting persistent cache flushing configuring one or more components of the computing system to perform persistent cache flush operations when power disruption events or power transition requests are detected. determining that a configuration option for a computing system has been selected to enable a first operating mode where data stored in volatile processor caches are part of a persistent memory state; determining, by the computing system , whether hardware components of the computing system are capable of supporting persistent cache flushing, wherein firmware executing on the computing system is configured to not advertise support for the first operating mode to an operating system if the hardware components are not capable of supporting persistent cache flushing even if the configuration option to enable the first operating mode has been selected; and responsive to determining that the first operating mode is enabled and the hardware components are capable of supporting persistent cache flushing configuring one or more components of the computing system to perform persistent cache flush operations when power disruption events or power transition requests are detected.
A method for transmitting scheduled uplink wireless transmissions, comprising: monitoring at least two downlink sub-frames in a radio frame for uplink scheduling grants in the radio frame; receiving from a first base station a first uplink scheduling grant in one of the at least two downlink sub-frames for at least a first uplink sub-frame wherein the first uplink scheduling grant is for multiple uplink sub-frames including the first uplink sub-frame; receiving from a second base station a second uplink scheduling grant in another of the at least two downlink sub-frames for at least the first uplink sub-frame after receiving the first uplink scheduling grant; and performing an uplink transmission in the first uplink sub-frame and at least one uplink sub-frame consecutive to the first uplink sub-frame based on both of the first uplink scheduling grant and the second uplink scheduling grant. monitoring at least two downlink sub-frames in a radio frame for uplink scheduling grants in the radio frame; receiving from a first base station a first uplink scheduling grant in one of the at least two downlink sub-frames for at least a first uplink sub-frame wherein the first uplink scheduling grant is for multiple uplink sub-frames including the first uplink sub-frame; receiving from a second base station a second uplink scheduling grant in another of the at least two downlink sub-frames for at least the first uplink sub-frame after receiving the first uplink scheduling grant; and performing an uplink transmission in the first uplink sub-frame and at least one uplink sub-frame consecutive to the first uplink sub-frame based on both of the first uplink scheduling grant and the second uplink scheduling grant.
A terminal device for use in a wireless telecommunications system for communicating with network infrastructure equipment in accordance with a first radio access technology on a primary cell supporting a primary component carrier on radio resources within a first frequency band and a secondary cell supporting a secondary component carrier on radio resources within a second frequency band, wherein the terminal device is further adapted to use radio resources within the second frequency band for communicating in accordance with a second radio access technology, and wherein the terminal device comprises a controller unit and a transceiver unit configured to operate together to: receive (S3) from the network infrastructure equipment an indication of a configuration of radio resources within the second frequency band for use by the terminal device for communications with the network infrastructure equipment in accordance with the first radio access technology; establish a configuration of radio resources within the second frequency band for use by the terminal device for communications in accordance with the second radio access technology; determine (S5) if there is an overlap in the radio resources configured for use by the terminal device for communications in accordance with the first radio access technology and the radio resources configured for use by the terminal device for communications in accordance with the second radio access technology, and if so, transmit signalling (S6) to the network infrastructure equipment to indicate there is an overlap. receive (S3) from the network infrastructure equipment an indication of a configuration of radio resources within the second frequency band for use by the terminal device for communications with the network infrastructure equipment in accordance with the first radio access technology; establish a configuration of radio resources within the second frequency band for use by the terminal device for communications in accordance with the second radio access technology; determine (S5) if there is an overlap in the radio resources configured for use by the terminal device for communications in accordance with the first radio access technology and the radio resources configured for use by the terminal device for communications in accordance with the second radio access technology, and if so, transmit signalling (S6) to the network infrastructure equipment to indicate there is an overlap.
An inkjet ink comprising: a first solvent; a dye soluble in the first solvent; 0.1 wt. % to 1 wt. % of the ink of a perfluoropolyether; and 0.1 wt. % to 3 wt. % of the ink of a leveling agent dissolved in the ink, wherein the leveling agent comprises an isoalkane, n-decane or 1-dodecene. a first solvent; a dye soluble in the first solvent; 0.1 wt. % to 1 wt. % of the ink of a perfluoropolyether; and 0.1 wt. % to 3 wt. % of the ink of a leveling agent dissolved in the ink, 0.1 wt. % to 1 wt. % of the ink of a perfluoropolyether; and 0.1 wt. % to 3 wt. % of the ink of a leveling agent dissolved in the ink,
A Ni-plated copper or copper alloy material, wherein an area ratio of a crystal of the Ni plating having <001> plane orientation in a crystal plane parallel to a surface of the Ni plating, measured by an electron backscatter diffraction, is 15 to 35%.
A barrier laminate (F) comprising: (a) at least one polyolefin core layer (X); (b) at least one barrier layer (Y) joined to both the sides of the at least one polyolefin core layer (X); and (c) at least one polyolefin layer (Z) adjacent to the at least one barrier layer (Y), wherein the at least one barrier layer (Y) is a polyvinyl alcohol (PVOH) coating layer on one side of the at least one polyolefin core layer (X); and has a coating thickness in the range of 0.1 gsm - 1.5 gsm. (a) at least one polyolefin core layer (X); (b) at least one barrier layer (Y) joined to both the sides of the at least one polyolefin core layer (X); and (c) at least one polyolefin layer (Z) adjacent to the at least one barrier layer (Y),
A method for reprocessing film waste material, comprising the following steps: - Providing film waste material (M A ), - Comminuting the film waste material (M A ) into recycling material (M R ) by means of a comminuting device , - Feeding the recycling material (M R ) into a multi-shaft screw machine by means of a feeding device , -- wherein the feeding device comprises a feed screw machine , -- wherein the feed screw machine has a free cross-sectional area A 1 and the multi-shaft screw machine has a free cross-sectional area A 2 , wherein A 1 > A 2 , - Plasticizing the recycling material (M R ) into a material melt (Ms) by means of the multi-shaft screw machine , and - Processing of the material melt (Ms) by means of the multi-shaft screw machine to raw material (Rw). - Providing film waste material (M A ), - Comminuting the film waste material (M A ) into recycling material (M R ) by means of a comminuting device , - Feeding the recycling material (M R ) into a multi-shaft screw machine by means of a feeding device , -- wherein the feeding device comprises a feed screw machine , -- wherein the feed screw machine has a free cross-sectional area A 1 and the multi-shaft screw machine has a free cross-sectional area A 2 , wherein A 1 > A 2 , -- wherein the feeding device comprises a feed screw machine , -- wherein the feed screw machine has a free cross-sectional area A 1 and the multi-shaft screw machine has a free cross-sectional area A 2 , wherein A 1 > A 2 , - Plasticizing the recycling material (M R ) into a material melt (Ms) by means of the multi-shaft screw machine , and - Processing of the material melt (Ms) by means of the multi-shaft screw machine to raw material (Rw).
Use of tagatose-6-phosphate phosphatase consisting of an amino acid sequence of SEQ ID NO: 1, for producing tagatose.
A port auto-negotiation method, comprising: configuring (S1011), by a first device, a first port of the first device as four subports, wherein each of the four subports comprises a differential transceiver channel; determining (S1021), by the first device from the four subports, at least one subport whose differential transceiver channel operates normally, and selecting some or all of the at least one subport as a normal subport; sending (S1031), by the first device, capability information of the first port to a second device by using the normal subport, and receiving, by using the normal subport, capability information of a second port of the second device sent by the second device, wherein the capability information comprises a port-supported differential transceiver channel combination mode; and configuring (S1041), by the first device, operating statuses of the four subports based on the capability information of the first port and the capability information of the second port, wherein the first device and the second device are high-speed Ethernet devices. configuring (S1011), by a first device, a first port of the first device as four subports, wherein each of the four subports comprises a differential transceiver channel; determining (S1021), by the first device from the four subports, at least one subport whose differential transceiver channel operates normally, and selecting some or all of the at least one subport as a normal subport; sending (S1031), by the first device, capability information of the first port to a second device by using the normal subport, and receiving, by using the normal subport, capability information of a second port of the second device sent by the second device, wherein the capability information comprises a port-supported differential transceiver channel combination mode; and configuring (S1041), by the first device, operating statuses of the four subports based on the capability information of the first port and the capability information of the second port, wherein the first device and the second device are high-speed Ethernet devices.
A method of hydraulic fracturing a subsurface formation, the method comprising: using a three-dimensional finite element model implemented on one or more processors to simulate a deviated well with a wellbore casing , a cement adjacent to the wellbore casing , and a perforation cluster with at least two perforations through a side wall of the wellbore casing , each of the at least two perforations extending through a rock of the subsurface formation via a respective perforation tunnel and having a different phase angle relative to a longitudinal axis of the wellbore casing ; solving the three-dimensional finite element model implemented on one or more processors to determine a breakdown pressure of the deviated well based on an amount of tensile damage of the perforation cluster induced by an applied pressure representing injected hydraulic fluid; drilling and completing a deviated well with a wellbore casing size, tubing size, and wellhead selected at least in part based on the determined breakdown pressure; and injecting hydraulic fluid into the deviated well at an injection pressure determined at least in part on the determined breakdown pressure to cause hydraulic fracturing of the rock of the subsurface formation, wherein the three-dimensional finite element model includes a concrete damage plasticity model representing constitutive behavior of the rock and a contact relationship between an interface of the wellbore casing and the cement adjacent to the wellbore casing , the contact relationship modeling de-bonding of the interface of the wellbore casing and the cement . using a three-dimensional finite element model implemented on one or more processors to simulate a deviated well with a wellbore casing , a cement adjacent to the wellbore casing , and a perforation cluster with at least two perforations through a side wall of the wellbore casing , each of the at least two perforations extending through a rock of the subsurface formation via a respective perforation tunnel and having a different phase angle relative to a longitudinal axis of the wellbore casing ; solving the three-dimensional finite element model implemented on one or more processors to determine a breakdown pressure of the deviated well based on an amount of tensile damage of the perforation cluster induced by an applied pressure representing injected hydraulic fluid; drilling and completing a deviated well with a wellbore casing size, tubing size, and wellhead selected at least in part based on the determined breakdown pressure; and injecting hydraulic fluid into the deviated well at an injection pressure determined at least in part on the determined breakdown pressure to cause hydraulic fracturing of the rock of the subsurface formation, wherein the three-dimensional finite element model includes a concrete damage plasticity model representing constitutive behavior of the rock and a contact relationship between an interface of the wellbore casing and the cement adjacent to the wellbore casing , the contact relationship modeling de-bonding of the interface of the wellbore casing and the cement .
A planetary gear comprising: - a sun shaft comprising a sun wheel , - a gear ring , - a planet carrier , - planet wheels (105-107, 305-308) meshing with the sun wheel and with the gear ring, and - planet wheel shafts (109, 309-312) supporting the planet wheels rotatably with respect to the planet carrier, wherein each of the planet wheel shafts is arranged to support a respective one of the planet wheels so that, in an unloaded situation, a geometric axis of rotation of the planet wheel under consideration is skewed with respect to an axial direction (z) of the planetary gear, and, in a loaded situation, the skewedness of the geometric axis of rotation of the planet wheel is at least partly eliminated by twisting deformation occurring in the planet carrier and caused by torque directed to the planet carrier, characterized in that each of the planet wheel shafts is prestressed in the unloaded situation where the planet carrier is free from the twisting deformation caused by torque directed to the planet carrier, and, in the loaded situation, prestress of each of the planet wheel shafts is reduced in a response to the twisting deformation of the planet carrier. - a sun shaft comprising a sun wheel , - a gear ring , - a planet carrier , - planet wheels (105-107, 305-308) meshing with the sun wheel and with the gear ring, and - planet wheel shafts (109, 309-312) supporting the planet wheels rotatably with respect to the planet carrier,
A mobile station (UE) for communicating with a base station (eNB) in a communication system, the communication being re-configured from a source to a target uplink/downlink configuration, wherein the source uplink/downlink configuration is a predefined one out of a plurality of uplink/downlink configurations and the target uplink/downlink configuration is any one of the plurality of uplink/downlink configurations, the plurality of uplink/downlink configurations being pre-configured for Time Division Duplex, TDD, communication, wherein: in the event that the communication is to be re-configured at a predetermined subframe N corresponding to a second, third or fourth subframe of a radio frame, the mobile station is configured to perform Physical Uplink Shared Channel, PUSCH, transmissions in response to Downlink Control Information, DCI, transmissions such that: - the source uplink/downlink configuration is applied to PUSCH transmissions relating to DCI transmissions received up to and including subframe N-1; - the target uplink/downlink configuration is applied to PUSCH transmissions relating to DCI transmissions received from subframe N onward; and wherein each of the plurality of uplink/downlink configurations determines a timing offset between said DCI transmissions and the corresponding PUSCH transmissions. - the source uplink/downlink configuration is applied to PUSCH transmissions relating to DCI transmissions received up to and including subframe N-1; - the target uplink/downlink configuration is applied to PUSCH transmissions relating to DCI transmissions received from subframe N onward; and