mhurhangee/patent-ind-claim-en huggingface dataset:
A textile comprising: an insulation zone comprising a first woven layer , a second woven layer , and a nonwoven layer positioned between the first woven layer and the second woven layer , each of the first woven layer and the second woven layer being unaffixed from the nonwoven layer in the insulation zone ; and a pile zone seamlessly extending from the insulation zone , the pile zone comprising the first woven layer , the second woven layer , and the nonwoven layer positioned between the first woven layer and the second woven layer , wherein fibers/filaments from the nonwoven layer are entangled with one or more of fibers, filaments, and yarns from each of the first woven layer and the second woven layer such that the first woven layer and the second woven layer are bound to the nonwoven layer in the pile zone .
A build plate of an additive manufacturing apparatus comprising: a surface that defines at least one threaded opening configured for disposal of a threaded proximal portion of a screw shaft , the proximal portion being formed by a first manufacturing method and defining a distal face , and the proximal portion being connectable with the surface via threaded engagement in a configuration to orient the distal face for forming a distal portion of the screw shaft thereon by a second manufacturing method that includes an additive manufacturing apparatus . a surface that defines at least one threaded opening configured for disposal of a threaded proximal portion of a screw shaft , the proximal portion being formed by a first manufacturing method and defining a distal face , and the proximal portion being connectable with the surface via threaded engagement in a configuration to orient the distal face for forming a distal portion of the screw shaft thereon by a second manufacturing method that includes an additive manufacturing apparatus .
A halogen-free flux used for soldering, the flux comprising: a thixotropic agent comprising a polyamide compound in which one endothermic peak or all of endothermic peaks at which an endothermic amount is 10 J/g or more, obtained by differential thermal analysis measured under the conditions according to the description using a differential scanning calorimeter, are observed within a range of 130 to 200 °C; and an activator comprising an isocyanuric acid derivative, characterized in that the isocyanuric acid derivative is at least one selected from bis(2-carboxyethyl)isocyanuric acid, tris(2-carboxyethyl)isocyanuric acid, and tris(2-carboxypropyl)isocyanuric acid, and a content of the isocyanuric acid derivative is 0.5 mass% or more and 5.0 mass% or less based on the entire flux. a thixotropic agent comprising a polyamide compound in which one endothermic peak or all of endothermic peaks at which an endothermic amount is 10 J/g or more, obtained by differential thermal analysis measured under the conditions according to the description using a differential scanning calorimeter, are observed within a range of 130 to 200 °C; and an activator comprising an isocyanuric acid derivative, characterized in that the isocyanuric acid derivative is at least one selected from bis(2-carboxyethyl)isocyanuric acid, tris(2-carboxyethyl)isocyanuric acid, and tris(2-carboxypropyl)isocyanuric acid, and a content of the isocyanuric acid derivative is 0.5 mass% or more and 5.0 mass% or less based on the entire flux.
A method for generating a batch of T-cells originating from different donors, said method comprising the steps of: (a) Providing T-cell samples obtained from individual donors; (b) Introducing a rare-cutting endonuclease disrupting at least one gene encoding a T cell Receptor (TCR) component into the cells of each individual sample; (c) Purifying the TCR negative cells from the sample; (d) Pooling the TCR negative cells originating from the samples from at least two individual donors; to obtain a batch of T-cells to be used off-the-shelf. (a) Providing T-cell samples obtained from individual donors; (b) Introducing a rare-cutting endonuclease disrupting at least one gene encoding a T cell Receptor (TCR) component into the cells of each individual sample; (c) Purifying the TCR negative cells from the sample; (d) Pooling the TCR negative cells originating from the samples from at least two individual donors; to obtain a batch of T-cells to be used off-the-shelf.
A control assembly, for a power machine having an engine , comprising an engine speed sensor configured to provide feedback of a load on the engine, and a controller configured to control a hydrostatic pump of a hydrostatic drive assembly, the control assembly further comprising: a user interface including operator controls capable of providing a pump stroke or displacement input signal to the controller to control the magnitude and direction of flow from the hydrostatic pump and a mode selector to select a power management control mode, a speed control mode and a no control mode; and a power management component configured to receive the feedback from the engine speed sensor and provide a control input to the controller based on the feedback received from the engine speed sensor when the power management control mode is selected; and a speed control component configured to receive a feedback from the engine speed sensor and provide a control input to the controller based on the feedback received from the engine speed sensor when the speed control mode is selected; wherein the controller is configured to control the magnitude and direction of the hydrostatic pump stroke or displacement in response to the operator controls and wherein the controller is configured, in the power management control mode, to destroke the pump to manage power usage and, in the speed control mode, to adjust the hydrostatic pump stroke to maintain a set engine speed in response to the feedback of the engine speed sensor and, in the no control mode, not to provide any control input to the controller based upon the feedback from the engine speed sensor . a user interface including operator controls capable of providing a pump stroke or displacement input signal to the controller to control the magnitude and direction of flow from the hydrostatic pump and a mode selector to select a power management control mode, a speed control mode and a no control mode; and a power management component configured to receive the feedback from the engine speed sensor and provide a control input to the controller based on the feedback received from the engine speed sensor when the power management control mode is selected; and a speed control component configured to receive a feedback from the engine speed sensor and provide a control input to the controller based on the feedback received from the engine speed sensor when the speed control mode is selected; wherein the controller is configured to control the magnitude and direction of the hydrostatic pump stroke or displacement in response to the operator controls and wherein the controller is configured, in the power management control mode, to destroke the pump to manage power usage and, in the speed control mode, to adjust the hydrostatic pump stroke to maintain a set engine speed in response to the feedback of the engine speed sensor and, in the no control mode, not to provide any control input to the controller based upon the feedback from the engine speed sensor .
An automatic lathe comprising: a main spindle a positioning block that positions a rod material , the rod material that projects from the main spindle contacting the positioning block to be positioned; and a detector , charaterised in that the detector is configured to move in a direction intersecting with an axis direction of the main spindle to detect a cut off condition of the rod material , wherein the positioning block includes a path that allows movement of the detector , and is configured to move in a same direction as a movement direction of the detector between a position that contacts the rod material and a position that has no contact with the rod material , and the detector is configured to move along the path when the positioning block moves to the position that has no contact with the rod material . a main spindle a positioning block that positions a rod material , the rod material that projects from the main spindle contacting the positioning block to be positioned; and a detector , a positioning block that positions a rod material , the rod material that projects from the main spindle contacting the positioning block to be positioned; and a detector , charaterised in that the detector is configured to move in a direction intersecting with an axis direction of the main spindle to detect a cut off condition of the rod material , wherein the positioning block includes a path that allows movement of the detector , and is configured to move in a same direction as a movement direction of the detector between a position that contacts the rod material and a position that has no contact with the rod material , and the detector is configured to move along the path when the positioning block moves to the position that has no contact with the rod material . wherein the positioning block includes a path that allows movement of the detector , and is configured to move in a same direction as a movement direction of the detector between a position that contacts the rod material and a position that has no contact with the rod material , and the detector is configured to move along the path when the positioning block moves to the position that has no contact with the rod material .
A non-aqueous electrolyte solution for a lithium secondary battery, the non-aqueous electrolyte solution comprisinga lithium salt; an organic solvent; and an additive, wherein the additive comprises a compound represented by Formula 1: wherein, in Formula 1, R 1 to R 3 are each independently a substituted or unsubstituted alkyl group having 1 to 5 carbon atoms. wherein the additive comprises a compound represented by Formula 1: wherein, in Formula 1, R 1 to R 3 are each independently a substituted or unsubstituted alkyl group having 1 to 5 carbon atoms.
Mounting system for carrying out an installation operation in an elevator shaft of an elevator system, comprising - a mounting device having a carrier component and a mechatronic installation component , - a displacement component which is arranged above the mounting device and - a support means which is at least indirectly fixed to the carrier component , it being possible for the displacement component to displace the mounting device in the elevator shaft by means of the support means , and the carrier component being supported by means of an upper support roller on a support wall of the elevator shaft at least during a displacement in the elevator shaft , characterized in that the support means has a diagonal pull (α, α*) with respect to the vertical in the direction of the support wall of the elevator shaft and the mounting system has a compensating element which is designed and arranged such that, during a displacement of the carrier component in the elevator shaft , it counteracts tilting of the carrier component about the upper support roller in the direction of the support wall . - a mounting device having a carrier component and a mechatronic installation component , - a displacement component which is arranged above the mounting device and - a support means which is at least indirectly fixed to the carrier component ,
An irrigation valve and a tube, wherein the irrigation valve comprises a jaw configured to receive the tube ; a piston coupled to the jaw and operable to move the jaw in response to negative pressure; and wherein the piston is operable to cycle the jaw between a high-flow position and a low-flow position to control fluid flow through the tube , characterised in that the tube comprises a sidewall , a lumen , and a recess formed in a portion of the sidewall adjacent to the lumen and having a length greater than a width of the jaw . a jaw configured to receive the tube ; a piston coupled to the jaw and operable to move the jaw in response to negative pressure; and wherein the piston is operable to cycle the jaw between a high-flow position and a low-flow position to control fluid flow through the tube , characterised in that the tube comprises a sidewall , a lumen , and a recess formed in a portion of the sidewall adjacent to the lumen and having a length greater than a width of the jaw .
An apparatus to monitor fluid loss from a cask during a maturation process, the apparatus comprising a multi-pass absorption cell in fluid communication with two or more fluid conduits and a pump , distal ends of the two or more fluid conduits arranged around a perimeter of a single cask , the pump providing a means for drawing fluid samples from two or more locations around the perimeter of the cask via the two or more fluid conduits into the multi-pass absorption cell , wherein the apparatus further comprises a monitoring system to monitor the fluid sample within the multi-pass absorption cell .
A method for occupancy detection for at least one vehicle seat (31-33), using at least one transmit antenna (Tx) and a plurality of receive antennas (Rx), the method comprising: - emitting a detection signal with each transmit antenna (Tx) onto at least one vehicle seat (31-33), which detection signal is a frequency-modulated continuous-wave radar signal, and receiving with each receive antenna (Rx) a reflected signal; - recording sample data representing the reflected signal, the sample data having M channels, with M = N1 · N2, where N1 is the number of transmit antennas (Tx) and N2 is the number of receive antennas (Rx); - for each channel, removing a component from the sample data that corresponds to a reflection from a static object; and - applying a frequency estimation method to the sample data to at least implicitly determine at least one angle of arrival θ i corresponding to a position of an occupant on a vehicle seat (31-33). characterized in that the frequency estimation method is a MUSIC method and comprises: - calculating the sample covariance matrix R̂ - calculating the eigenvalues and eigenvectors of the sample covariance matrix R̂ ; - sorting the eigenvalues in descending order and, with D being a number of targets, selecting M - D smallest eigenvalues and corresponding eigenvectors to determine a noise subspace G ; and - calculating the roots z i of a root-MUSIC polynomial J ( z ) with J z = z M − 1 p T z − 1 G G H p z wherein p z = z 0 ⋮ z M − 1 and each root z i corresponds to an angle of arrival θ i . - emitting a detection signal with each transmit antenna (Tx) onto at least one vehicle seat (31-33), which detection signal is a frequency-modulated continuous-wave radar signal, and receiving with each receive antenna (Rx) a reflected signal; - recording sample data representing the reflected signal, the sample data having M channels, with M = N1 · N2, where N1 is the number of transmit antennas (Tx) and N2 is the number of receive antennas (Rx); - for each channel, removing a component from the sample data that corresponds to a reflection from a static object; and - applying a frequency estimation method to the sample data to at least implicitly determine at least one angle of arrival θ i corresponding to a position of an occupant on a vehicle seat (31-33). - calculating the sample covariance matrix R̂ - calculating the eigenvalues and eigenvectors of the sample covariance matrix R̂ ; - sorting the eigenvalues in descending order and, with D being a number of targets, selecting M - D smallest eigenvalues and corresponding eigenvectors to determine a noise subspace G ; and - calculating the roots z i of a root-MUSIC polynomial J ( z ) with J z = z M − 1 p T z − 1 G G H p z wherein p z = z 0 ⋮ z M − 1 and each root z i corresponds to an angle of arrival θ i .
An air-quality detection apparatus, comprising: a casing body comprising a bottom and a side wall extending upwards from a circumference of the bottom; a first printed circuit board (PCB) disposed horizontally above the bottom ; a second PCB disposed horizontally in a first region above the first PCB ; a CO 2 sensor mounted on the second PCB ; a volatile organic compound (VOC) sensor mounted in a second region on a top surface of the first PCB , the second region being closer to the side wall than the first region; a third PCB on which a wireless communication interface is mounted, the third PCB being disposed horizontally at a position spaced further upwards apart from the bottom than the first PCB , at least a portion of the third PCB being disposed in a third region that does not overlap the first PCB when the bottom is viewed from above; a fourth PCB disposed horizontally above the second PCB and the third PCB ; and a dust sensor mounted on a top surface of the fourth PCB . a casing body comprising a bottom and a side wall extending upwards from a circumference of the bottom; a first printed circuit board (PCB) disposed horizontally above the bottom ; a second PCB disposed horizontally in a first region above the first PCB ; a CO 2 sensor mounted on the second PCB ; a volatile organic compound (VOC) sensor mounted in a second region on a top surface of the first PCB , the second region being closer to the side wall than the first region; a third PCB on which a wireless communication interface is mounted, the third PCB being disposed horizontally at a position spaced further upwards apart from the bottom than the first PCB , at least a portion of the third PCB being disposed in a third region that does not overlap the first PCB when the bottom is viewed from above; a fourth PCB disposed horizontally above the second PCB and the third PCB ; and a dust sensor mounted on a top surface of the fourth PCB .
An intravascular catheter device for the treatment of various medical conditions comprising: a handle assembly ; an expandable portion comprising a plurality of struts oriented along a longitudinal axis of the expandable portion configured to move between a collapsed and an expanded position and a tip member affixed to a distal end of said struts ; a catheter tube extending from the handle assembly to the expandable portion , wherein said catheter tube defines an inner lumen; an elongate member disposed within the inner lumen and in communication with the handle assembly and the tip member ; characterised by an attachment mechanism located on at least one of the plurality of struts configured to permit the selective attachment of one of a plurality of medical tools . a handle assembly ; an expandable portion comprising a plurality of struts oriented along a longitudinal axis of the expandable portion configured to move between a collapsed and an expanded position and a tip member affixed to a distal end of said struts ; a catheter tube extending from the handle assembly to the expandable portion , wherein said catheter tube defines an inner lumen; an elongate member disposed within the inner lumen and in communication with the handle assembly and the tip member ; characterised by an attachment mechanism located on at least one of the plurality of struts configured to permit the selective attachment of one of a plurality of medical tools .
A controller configured to maneuver a saddled vehicle , the saddled vehicle including a braking operation unit and a detector , the braking operation unit configured to be operated by a rider, the detector configured to detect a state quantity of the braking operation unit during a service braking, the controller comprising: a determination unit configured to determine, based on an output from the detector , whether the braking operation unit is in operation; and an execution unit configured to execute a driving support mode when the determination unit determines that the braking operation unit is in operation, the driving support mode in which a braking force generated in the saddled vehicle is amplified, characterized in that the execution unit , in the driving support mode: amplifies the braking force based on a surrounding environment information that is information about environment around the saddled vehicle ; and changes, based on a degree of change in the output from the detector , a degree of reduction in the braking force at the end of the amplification of the braking force generated in the saddled vehicle . a determination unit configured to determine, based on an output from the detector , whether the braking operation unit is in operation; and an execution unit configured to execute a driving support mode when the determination unit determines that the braking operation unit is in operation, the driving support mode in which a braking force generated in the saddled vehicle is amplified, characterized in that the execution unit , in the driving support mode: amplifies the braking force based on a surrounding environment information that is information about environment around the saddled vehicle ; and changes, based on a degree of change in the output from the detector , a degree of reduction in the braking force at the end of the amplification of the braking force generated in the saddled vehicle . amplifies the braking force based on a surrounding environment information that is information about environment around the saddled vehicle ; and changes, based on a degree of change in the output from the detector , a degree of reduction in the braking force at the end of the amplification of the braking force generated in the saddled vehicle .
A comfort layer (16, 16a-16m) configured to overlay a core of a bedding or seating product , said comfort layer (16, 16a-16m) comprising: a matrix of interconnected pocketed mini coil springs , each pocketed mini coil spring comprising a mini coil spring contained within a fabric pocket , said fabric pocket having a weld seam at least partially around the fabric pocket joining first and second pieces of the fabric pocket ; characterized by said comfort layer (16, 16a-16m) having at least one tall section and at least one short section , the pocketed mini coil springs of each of the tall sections being a first height and the pocketed mini coil springs of each short section being a second height less than the first height, wherein the mini coil springs within the pocketed mini coil springs of each tall section have a smaller diameter than the diameter of the mini coil springs within the pocketed mini coil springs of each short section . a matrix of interconnected pocketed mini coil springs , each pocketed mini coil spring comprising a mini coil spring contained within a fabric pocket , said fabric pocket having a weld seam at least partially around the fabric pocket joining first and second pieces of the fabric pocket ; characterized by said comfort layer (16, 16a-16m) having at least one tall section and at least one short section , the pocketed mini coil springs of each of the tall sections being a first height and the pocketed mini coil springs of each short section being a second height less than the first height, wherein the mini coil springs within the pocketed mini coil springs of each tall section have a smaller diameter than the diameter of the mini coil springs within the pocketed mini coil springs of each short section .