mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated air data sensor comprising: a transducer ; and a probe operably attachable to the transducer by a sealing feature such that a first gas path defined by the probe is fluidically coupled to a second gas path defined by the transducer via an inlet to the second gas path when the sealing feature is in an open position and the inlet is blocked from fluid flow therethrough when the sealing feature is in a closed position, wherein the sealing feature is configured to move from the open position to the closed position when the probe is detached from the transducer . a transducer ; and a probe operably attachable to the transducer by a sealing feature such that a first gas path defined by the probe is fluidically coupled to a second gas path defined by the transducer via an inlet to the second gas path when the sealing feature is in an open position and the inlet is blocked from fluid flow therethrough when the sealing feature is in a closed position, wherein the sealing feature is configured to move from the open position to the closed position when the probe is detached from the transducer .
A fixture for supporting the motor of a vehicle with increased flexibility, comprising a supporting crossmember , means for supporting from below the motor of a vehicle which are associated with a first end of said crossmember , stabilization means which are associated with a second end of said crossmember , which is arranged opposite the first, and which are adapted to abut in a lower region against the chassis of said vehicle, and means for anchoring to said chassis which are arranged along said crossmember , the stabilization means comprising at least two bars which are pivoted to said second end and which support respective abutment elements under the chassis, characterized in that said bars are pivoted to said crossmember about a single rotation axis (A) which is substantially perpendicular to the axes of longitudinal extension of said crossmember and of said bars, and in that the fixture comprises a pivot for pivoting said bars which lies along said rotation axis (A) and is associated with said second end , and two connecting plates which are pivoted around said pivot and are arranged offset along said rotation axis (A), each one of which is connected to a respective bar .
A method of wireless communication at a user equipment, UE, comprising: identifying a transmission time interval, TTI, associated with transmitting first channel state information, CSI, feedback for a component carrier, CC, operating in a standalone operation mode over a shared frequency band based at least in part on a CSI feedback configuration; identifying a transmission, from the evolved node B, eNB, reserving one or more channels of the shared frequency band for communication via the CC, the transmission identifying a time division duplex, TDD, configuration for the CC over a specified time duration; determining an uplink transmission window of one or more uplink transmission windows during the specified time duration for transmitting the first CSI feedback based at least in part on a timing characteristic of the uplink transmission window relative to the identified TTI; and performing a CSI feedback transmission procedure to transmit the first CSI feedback during the uplink transmission window identifying a transmission time interval, TTI, associated with transmitting first channel state information, CSI, feedback for a component carrier, CC, operating in a standalone operation mode over a shared frequency band based at least in part on a CSI feedback configuration; identifying a transmission, from the evolved node B, eNB, reserving one or more channels of the shared frequency band for communication via the CC, the transmission identifying a time division duplex, TDD, configuration for the CC over a specified time duration; determining an uplink transmission window of one or more uplink transmission windows during the specified time duration for transmitting the first CSI feedback based at least in part on a timing characteristic of the uplink transmission window relative to the identified TTI; and performing a CSI feedback transmission procedure to transmit the first CSI feedback during the uplink transmission window
A method of making a tobacco extract comprising; (a) providing tobacco and an entrapment solvent in a partitioned vessel, wherein the tobacco and entrapment solvent are separated by a partition, and the vessel is configured such that the tobacco and entrapment solvent cannot contact each other; (b) flowing a supercritical extraction solvent through the vessel, wherein the extraction solvent and any dissolved substances can pass through the partition; whereby tobacco components are extracted from the tobacco into the extraction solvent and carried across the partition, wherein the extraction solvent contacts the entrapment solvent and tobacco components are transferred from the extraction solvent into the entrapment solvent; and (c) providing the entrapment solvent containing dissolved tobacco components in a cartridge, wherein the cartridge is configured for use in a smoking article. (a) providing tobacco and an entrapment solvent in a partitioned vessel, wherein the tobacco and entrapment solvent are separated by a partition, and the vessel is configured such that the tobacco and entrapment solvent cannot contact each other; (b) flowing a supercritical extraction solvent through the vessel, wherein the extraction solvent and any dissolved substances can pass through the partition; whereby tobacco components are extracted from the tobacco into the extraction solvent and carried across the partition, wherein the extraction solvent contacts the entrapment solvent and tobacco components are transferred from the extraction solvent into the entrapment solvent; and (c) providing the entrapment solvent containing dissolved tobacco components in a cartridge, wherein the cartridge is configured for use in a smoking article.
Apparatus for fabricating a stiffened composite panel, comprising: a forming cell including a plurality of individual forming block modules on which composite pre-preg can be separately formed into composite laminate stiffeners ; a plurality of individual cure tool modules on which the composite laminate stiffeners can be placed and cured; a stiffener assembly cell in which the cure tool modules each having a composite laminate stiffener placed thereon can be assembled together and held in indexed relationship to each other; and, final assembly cell in which a composite skin is placed on the composite laminate stiffeners in readiness for curing; wherein each of the individual forming block modules includes a plurality of forming block segments arranged substantially co-linearly and adjustable for forming desired local attributes of one of the composite laminate stiffeners , and wherein each of the cure tool modules includes a plurality of cure tool segments arranged co-linearly and adjustable in position to match local attributes of one of the composite laminate stiffeners . a forming cell including a plurality of individual forming block modules on which composite pre-preg can be separately formed into composite laminate stiffeners ; a plurality of individual cure tool modules on which the composite laminate stiffeners can be placed and cured; a stiffener assembly cell in which the cure tool modules each having a composite laminate stiffener placed thereon can be assembled together and held in indexed relationship to each other; and, final assembly cell in which a composite skin is placed on the composite laminate stiffeners in readiness for curing; wherein each of the individual forming block modules includes a plurality of forming block segments arranged substantially co-linearly and adjustable for forming desired local attributes of one of the composite laminate stiffeners , and wherein each of the cure tool modules includes a plurality of cure tool segments arranged co-linearly and adjustable in position to match local attributes of one of the composite laminate stiffeners .
An array substrate, comprising: a first signal line layer (DL,GL) comprising a plurality of rows (GL) of first signal lines; a second signal line layer comprising a plurality of columns (DL) of second signal lines; the plurality of rows of first signal lines crossing over the plurality of columns of second signal lines defining a plurality of subpixels; a first insulating layer (GI1) and a second insulating layer (GI2) between the first signal line layer and the second signal line layer; the first insulating layer on a side of the second insulating layer proximal to the first signal line layer; a repair line (RL) between the first insulating layer and the second insulating layer, the repair line corresponding to one of the plurality of columns of second signal lines; and a first via (V1) and a second via (V2) extending through the second insulating layer; wherein the repair line is electrically connected to the corresponding one of the plurality of columns of second signal lines through the first via and the second via, respectively. a first signal line layer (DL,GL) comprising a plurality of rows (GL) of first signal lines; a second signal line layer comprising a plurality of columns (DL) of second signal lines; the plurality of rows of first signal lines crossing over the plurality of columns of second signal lines defining a plurality of subpixels; a first insulating layer (GI1) and a second insulating layer (GI2) between the first signal line layer and the second signal line layer; the first insulating layer on a side of the second insulating layer proximal to the first signal line layer; a repair line (RL) between the first insulating layer and the second insulating layer, the repair line corresponding to one of the plurality of columns of second signal lines; and a first via (V1) and a second via (V2) extending through the second insulating layer; wherein the repair line is electrically connected to the corresponding one of the plurality of columns of second signal lines through the first via and the second via, respectively.
An apparatus comprising: processing circuitry to perform data processing; a plurality of vector registers to store vector values comprising a plurality of data elements; a plurality of scalar registers to store scalar values; and an instruction decoder to decode instructions to control the processing circuitry to process the instructions as defined by an instruction set architecture, wherein the instruction decoder is configured to decode a vector multiply-add instruction specifying a plurality of registers including at least one vector register and at least one scalar register, to control the processing circuitry to perform a vector multiply-add operation comprising a plurality of lanes of processing on a first vector value stored in a first vector register specified by the vector multiply-add instruction to generate a result vector value comprising a plurality of result data elements; each lane of processing comprising generating a respective result data element of the result vector value corresponding to a sum or difference of a product value and an addend value, the product value corresponding to a product of a respective data element of the first vector value and a multiplier value; wherein for each lane of processing, at least one of the multiplier value and the addend value comprises at least a portion of a scalar value stored in a scalar register specified by the vector multiply-add instruction. processing circuitry to perform data processing; a plurality of vector registers to store vector values comprising a plurality of data elements; a plurality of scalar registers to store scalar values; and an instruction decoder to decode instructions to control the processing circuitry to process the instructions as defined by an instruction set architecture, wherein the instruction decoder is configured to decode a vector multiply-add instruction specifying a plurality of registers including at least one vector register and at least one scalar register, to control the processing circuitry to perform a vector multiply-add operation comprising a plurality of lanes of processing on a first vector value stored in a first vector register specified by the vector multiply-add instruction to generate a result vector value comprising a plurality of result data elements; each lane of processing comprising generating a respective result data element of the result vector value corresponding to a sum or difference of a product value and an addend value, the product value corresponding to a product of a respective data element of the first vector value and a multiplier value; wherein for each lane of processing, at least one of the multiplier value and the addend value comprises at least a portion of a scalar value stored in a scalar register specified by the vector multiply-add instruction.
A Digital Mobile Radio, DMR, private network communication terminal for implementing DMR private network communication in relay mode, comprising: a communication module for receiving Common Assignment Channel, CACH, information and receiving and transmitting DMR private network communication, characterized in that it further comprises: a synchronization module for establishing synchronization and determining which time slots the received DMR private network communication occupies based on the received CACH information; controlling the communication module to make a response for the received DMR private network communication in the time slots occupied by the received DMR private network communication; locking idle time slots based on the received CACH information; and controlling the communication module to initiate new DMR private network communication in the determined idle time slots; wherein the time slots are time slots at an identical position of each DMR frame, wherein a DMR frame consists of two time slots. a synchronization module for establishing synchronization and determining which time slots the received DMR private network communication occupies based on the received CACH information; controlling the communication module to make a response for the received DMR private network communication in the time slots occupied by the received DMR private network communication; locking idle time slots based on the received CACH information; and controlling the communication module to initiate new DMR private network communication in the determined idle time slots; wherein the time slots are time slots at an identical position of each DMR frame, wherein a DMR frame consists of two time slots.
Fixed frame having a floor sill, wherein the fixed frame comprises at least two vertical posts and a horizontal, lower transom on which the floor sill can be placed, and wherein both sides of the floor sill are provided with a respective corner seal element that can be inserted into a respective corner region of the fixed frame , wherein the floor sill is divided, according to length, into a floor sill element that can be placed on the fixed frame and into an outer profile that can be set on the outside thereof, and the floor sill element extends at least up to a parting plane (T) that can be lined up with the outer side of the fixed frame , and the outer profile can be coupled to the floor sill element and can be arranged in front of the outer side of the fixed frame , wherein the floor sill element has a connection profile region protruding outwardly over the parting plane (T), characterized in that the fixed frame has an outer profile upstand and a central seal upstand , and, by virtue of a cutout on the lower transom of the fixed frame , the outer profile upstand is set away between the posts apart from a height below the upper edge of the central seal upstand , and the cutout in the corner region reaches to below the outer profile upstand at the joining vertical post , and the floor sill element extends from the central seal upstand as far as the outer side of the fixed frame , where the connection profile region adjoins.
An electroluminescent display substrate , comprising: a base substrate comprising a display area and a peripheral area surrounding the display area , wherein at least one OLED device is in the display area ; a gate metal layer , a gate insulation layer and a source drain metal layer sequentially disposed on the base substrate ; a pixel defining layer in the display area and the peripheral area ; at least one groove in the pixel defining layer in the peripheral area ; a first electrode lead in the groove and electrically connected to the first electrode , wherein, the at least one OLED device has a first electrode and a second electrode opposite to the first electrode , the first electrode is on a side of the pixel defining layer away from the base substrate and extends to cover the groove , the first electrode lead and the second electrode are formed of a same material in a same layer, the gate metal layer comprises data line leads in the peripheral area , the source drain metal layer comprises data lines in the peripheral area , the gate insulation layer has a plurality of via holes in the peripheral area to expose the data line leads , the plurality of via holes and the data lines are on a side of the groove facing the display area , the data line leads are electrically connected to the data lines through the plurality of via holes after crossing the groove . a base substrate comprising a display area and a peripheral area surrounding the display area , wherein at least one OLED device is in the display area ; a gate metal layer , a gate insulation layer and a source drain metal layer sequentially disposed on the base substrate ; a pixel defining layer in the display area and the peripheral area ; at least one groove in the pixel defining layer in the peripheral area ; a first electrode lead in the groove and electrically connected to the first electrode , wherein, the at least one OLED device has a first electrode and a second electrode opposite to the first electrode , the first electrode is on a side of the pixel defining layer away from the base substrate and extends to cover the groove , the first electrode lead and the second electrode are formed of a same material in a same layer, the gate metal layer comprises data line leads in the peripheral area , the source drain metal layer comprises data lines in the peripheral area , the gate insulation layer has a plurality of via holes in the peripheral area to expose the data line leads , the plurality of via holes and the data lines are on a side of the groove facing the display area , the data line leads are electrically connected to the data lines through the plurality of via holes after crossing the groove .
A fluid-control device , comprising a stack of wafers in which flow components (10, 10A-F) are provided as micro-electro-mechanical systems - MEMS, said flow components (10, 10A-F) being selected from at least one of fluid-control components and fluid-monitor components , wherein a first said flow component is encircled, in a main plane of said stack of wafers , by a second said flow component , characterized in that at least said first and second flow components (10A-B) comprise a respective deformable membrane .
Device for carrying out a financial transaction, having - a reader for reading data from an identification device belonging to a user, - at least two magnetic field coils for generating an alternating magnetic field (H) in a detection range at the reader , and - a control and evaluation device which is designed to control a first of the at least two magnetic field coils for the purpose of generating the alternating magnetic field (H) and to monitor at least one characteristic variable (Z) of the magnetic field coil which depends on the alternating magnetic field (H) generated in order to detect an object in the detection range using the characteristic variable (Z), characterized in that the first of the at least two magnetic field coils generates an alternating magnetic field (H) at a first frequency of greater than 100 kHz, and a second of the at least two magnetic field coils generates an alternating magnetic field (H) at a second frequency which is lower than the first frequency. - a reader for reading data from an identification device belonging to a user, - at least two magnetic field coils for generating an alternating magnetic field (H) in a detection range at the reader , and - a control and evaluation device which is designed to control a first of the at least two magnetic field coils for the purpose of generating the alternating magnetic field (H) and to monitor at least one characteristic variable (Z) of the magnetic field coil which depends on the alternating magnetic field (H) generated in order to detect an object in the detection range using the characteristic variable (Z),
A multifunctional robot system, comprising: a movable supply station comprising a power supply system ; a plurality of robot units ; and a traction device for driving the movable supply station, wherein the movable supply station is connected with each of the plurality of robot units through a connecting cable , the connecting cable comprises a plurality of branch power cables, and the power supply system is configured to provide power for each robot unit respectively through the plurality of branch power cables; wherein each of the plurality of robot units is provided with a robot driving device, an operation execution device, a robot adsorption device and a robot moving device ; and wherein the robot driving device is configured to enable the each of the plurality of robot units to move on a working surface , the robot adsorption device is configured to adhere the each of the plurality of robot units to the working surface, the plurality of robot units are configured to move on a horizontal or vertical plane or over a bevel, and the movable supply station is configured to follow the plurality of robot units, characterized by further comprising: a plurality of coupling devices configured to flexibly connect the plurality of robot units to the movable supply station. a movable supply station comprising a power supply system ; a plurality of robot units ; and a traction device for driving the movable supply station, wherein the movable supply station is connected with each of the plurality of robot units through a connecting cable , the connecting cable comprises a plurality of branch power cables, and the power supply system is configured to provide power for each robot unit respectively through the plurality of branch power cables; wherein each of the plurality of robot units is provided with a robot driving device, an operation execution device, a robot adsorption device and a robot moving device ; and wherein the robot driving device is configured to enable the each of the plurality of robot units to move on a working surface , the robot adsorption device is configured to adhere the each of the plurality of robot units to the working surface, the plurality of robot units are configured to move on a horizontal or vertical plane or over a bevel, and the movable supply station is configured to follow the plurality of robot units, characterized by further comprising: a plurality of coupling devices configured to flexibly connect the plurality of robot units to the movable supply station.