mhurhangee/patent-ind-claim-en huggingface dataset:
A laser leveling system for use with a patient drainage system , comprising: a housing ; a mounting bracket coupled to the housing and configured to rotatably couple the housing to the drainage system ; an accelerometer enclosed within the housing ; a laser module enclosed within the housing ; and a first level indicator positioned on a top of the housing and electrically coupled to the accelerometer to indicate a relative position of the housing with respect to gravity, wherein the first level indicator includes first , second and third light emitting diodes, wherein the first and third of the light emitting diodes indicate that the housing is not level and the second of the light emitting diodes indicate that the housing is level, and in that the laser leveling system further comprises a second level indicator positioned on a bottom of the housing and electrically coupled to the accelerometer to indicate a relative position of the housing with respect to gravity, wherein the second level indicator includes forth , fifth and sixth light emitting diodes, wherein the forth and sixth of the light emitting diodes indicate that the housing is not level and the fifth of the light emitting diodes indicate that the housing is level, and in that the first and fourth light emitting diodes are lit when the housing is tilted in a first counter-clockwise direction with respect to gravity and the third and sixth light emitting diodes are lit when the housing is tilted in a second clockwise direction with respect to gravity opposite to the first direction. a housing ; a mounting bracket coupled to the housing and configured to rotatably couple the housing to the drainage system ; an accelerometer enclosed within the housing ; a laser module enclosed within the housing ; and a first level indicator positioned on a top of the housing and electrically coupled to the accelerometer to indicate a relative position of the housing with respect to gravity, wherein the first level indicator includes first , second and third light emitting diodes, wherein the first and third of the light emitting diodes indicate that the housing is not level and the second of the light emitting diodes indicate that the housing is level, and in that the laser leveling system further comprises a second level indicator positioned on a bottom of the housing and electrically coupled to the accelerometer to indicate a relative position of the housing with respect to gravity, wherein the second level indicator includes forth , fifth and sixth light emitting diodes, wherein the forth and sixth of the light emitting diodes indicate that the housing is not level and the fifth of the light emitting diodes indicate that the housing is level, and in that the first and fourth light emitting diodes are lit when the housing is tilted in a first counter-clockwise direction with respect to gravity and the third and sixth light emitting diodes are lit when the housing is tilted in a second clockwise direction with respect to gravity opposite to the first direction.
A computer-implemented method comprising: obtaining frame data representative of a plurality of frames captured by a touch-sensitive device; analyzing the frame data to define a respective blob in each frame of the plurality of frames, the blobs being indicative of a touch event; computing a plurality of feature sets for the touch event, each feature set specifying properties of the respective blob in each frame of the plurality of frames; and determining a type of the touch event via machine learning classification configured to provide multiple non-bimodal classification scores based on the plurality of feature sets for the plurality of frames, each non-bimodal classification score being indicative of an ambiguity level in the machine learning classification; wherein determining the type further comprises: applying the feature set for a respective frame of the plurality of frames to multiple look-up tables, each look-up table providing a respective individual non-bimodal classification score of the multiple non-bimodal classification scores; combining each of the individual non-bimodal classification scores for the respective frame to generate a blob classification rating score for the respective frame; aggregating the blob classification rating scores across the plurality of frames to determine a cumulative, multi-frame classification score for the touch event; and determining the type based on whether the cumulative, multi-frame classification score passes one of multiple classification thresholds. obtaining frame data representative of a plurality of frames captured by a touch-sensitive device; analyzing the frame data to define a respective blob in each frame of the plurality of frames, the blobs being indicative of a touch event; computing a plurality of feature sets for the touch event, each feature set specifying properties of the respective blob in each frame of the plurality of frames; and determining a type of the touch event via machine learning classification configured to provide multiple non-bimodal classification scores based on the plurality of feature sets for the plurality of frames, each non-bimodal classification score being indicative of an ambiguity level in the machine learning classification; applying the feature set for a respective frame of the plurality of frames to multiple look-up tables, each look-up table providing a respective individual non-bimodal classification score of the multiple non-bimodal classification scores; combining each of the individual non-bimodal classification scores for the respective frame to generate a blob classification rating score for the respective frame; aggregating the blob classification rating scores across the plurality of frames to determine a cumulative, multi-frame classification score for the touch event; and determining the type based on whether the cumulative, multi-frame classification score passes one of multiple classification thresholds.
A method of determining a minimum root radius of a worm gear member of a worm drive , said worm gear member having an axis of rotation extending in a direction Z, a periphery comprising a plurality of teeth , and a face width with said plurality of teeth being located along said face width and extending between an upper face and a lower face of said worm gear member with a tooth space having a root located between adjacent teeth, a root radius being defined between said axis and said root, said method comprising: probing a root of a tooth space between adjacent teeth , said probing comprising establishing a center location in said tooth space between said adjacent teeth and probing along said root at a plurality of points, each of said points being defined by a root radius position and a Z-direction position, said plurality of points forming a shape, best fitting a defined curve to the shape formed by said plurality of points, and determining a minimum root radius and a corresponding location in said Z-direction from said defined curve. probing a root of a tooth space between adjacent teeth , said probing comprising establishing a center location in said tooth space between said adjacent teeth and probing along said root at a plurality of points, each of said points being defined by a root radius position and a Z-direction position, said plurality of points forming a shape, best fitting a defined curve to the shape formed by said plurality of points, and determining a minimum root radius and a corresponding location in said Z-direction from said defined curve.
A method for using voice interaction to access functionality of a digital assistant of an electronic device during an active phone call at a companion device, the method comprising: at the electronic device having a processor, memory, and a speaker: receiving, from the companion device, audio data of the active phone call, wherein the audio data represents an utterance received by the companion device from a far-end party of the active phone call via an active phone call connection; determining, based on the audio data, whether at least a portion of the utterance corresponds to a predefined digital assistant trigger; in accordance with a determination that at least a portion of the utterance corresponds to the predefined digital assistant trigger, causing a server to determine a user intent corresponding to the utterance; receiving, from the server, one or more commands representing one or more tasks to satisfy the user intent; determining, based on results of performing the one or more tasks, a digital assistant response; and transmitting the digital assistant response to the companion device, wherein the companion device transmits the digital assistant response to the far-end party via the active phone call connection. receiving, from the companion device, audio data of the active phone call, wherein the audio data represents an utterance received by the companion device from a far-end party of the active phone call via an active phone call connection; determining, based on the audio data, whether at least a portion of the utterance corresponds to a predefined digital assistant trigger; in accordance with a determination that at least a portion of the utterance corresponds to the predefined digital assistant trigger, causing a server to determine a user intent corresponding to the utterance; receiving, from the server, one or more commands representing one or more tasks to satisfy the user intent; determining, based on results of performing the one or more tasks, a digital assistant response; and transmitting the digital assistant response to the companion device, wherein the companion device transmits the digital assistant response to the far-end party via the active phone call connection.
A drive assembly of an instrument drive unit for use with a surgical instrument, the drive assembly comprising a drive element , wherein longitudinal translation of the drive element is configured to drive a function of the surgical instrument, characterised in that the drive assembly further comprises: a drive screw defining a longitudinal axis, the drive screw including a threaded portion; a drive nut threadedly engaged with the threaded portion of the drive screw such that rotation of the drive screw results in longitudinal movement of the drive nut; a follower being longitudinally slidable with respect to the drive screw; a biasing element disposed in mechanical cooperation with the drive nut and the follower; and wherein the drive element is disposed in mechanical cooperation with the follower . a drive screw defining a longitudinal axis, the drive screw including a threaded portion; a drive nut threadedly engaged with the threaded portion of the drive screw such that rotation of the drive screw results in longitudinal movement of the drive nut; a follower being longitudinally slidable with respect to the drive screw; a biasing element disposed in mechanical cooperation with the drive nut and the follower; and wherein the drive element is disposed in mechanical cooperation with the follower .
A chimeric antigen receptor (CAR) polypeptide comprising: a) an extracellular domain comprising a CD37-binding sequence, wherein said CD37-binding sequence comprises an antibody light chain comprising a sequence of SEQ ID NO: 4, and the heavy chain comprising a sequence of SEQ ID NO: 2; wherein the CD37-binding sequence optionally comprises a single-chain antibody (scFv), and wherein the scFv optionally comprises the antibody light chain N-terminal to the antibody heavy chain, or the antibody heavy chain N-terminal to the antibody light chain; b) a transmembrane domain, wherein the transmembrane domain optionally comprises the transmembrane domain from CD8 or 4-1BB, said transmembrane domain optionally comprises a sequence of SEQ ID NO:12; and c) a T cell intracellular signaling domain, wherein the T cell intracellular domain optionally comprises a CD3ζ intracellular signaling domain, said CD3ζ intracellular signaling domain optionally comprises a sequence of SEQ ID NO: 14, and optionally further comprising d) a co-stimulatory domain, wherein the co-stimulatory domain optionally comprises the co-stimulatory domain of 4-1BB, said co-stimulatory domain optionally comprises a sequence of SEQ ID NO: 13. a) an extracellular domain comprising a CD37-binding sequence, wherein said CD37-binding sequence comprises an antibody light chain comprising a sequence of SEQ ID NO: 4, and the heavy chain comprising a sequence of SEQ ID NO: 2; wherein the CD37-binding sequence optionally comprises a single-chain antibody (scFv), and wherein the scFv optionally comprises the antibody light chain N-terminal to the antibody heavy chain, or the antibody heavy chain N-terminal to the antibody light chain; b) a transmembrane domain, wherein the transmembrane domain optionally comprises the transmembrane domain from CD8 or 4-1BB, said transmembrane domain optionally comprises a sequence of SEQ ID NO:12; and c) a T cell intracellular signaling domain, wherein the T cell intracellular domain optionally comprises a CD3ζ intracellular signaling domain, said CD3ζ intracellular signaling domain optionally comprises a sequence of SEQ ID NO: 14, and optionally further comprising d) a co-stimulatory domain, wherein the co-stimulatory domain optionally comprises the co-stimulatory domain of 4-1BB, said co-stimulatory domain optionally comprises a sequence of SEQ ID NO: 13.
A differential driver circuit comprising: a current steering circuit configured to determine a current direction through differential output terminals of the differential driver circuit; two resistors connected between the differential output terminals of the differential driver circuit; a NMOS transistor and PMOS transistor ; wherein source terminals of the NMOS transistor and PMOS transistor are connected to a point between the two resistors; drain terminals of the NMOS transistor and PMOS transistor are connected to different supply voltages; a gate terminal of the NMOS transistor is connected to a first bias voltage; a gate terminal of the PMOS transistor is connected to a second bias voltage; and wherein the first bias voltage is equal to a sum of a reference voltage and the threshold voltage of the NMOS transistor , the second bias voltage is equal to a voltage difference between the reference voltage and the threshold voltage of the PMOS transistor ; and wherein the NMOS transistor and PMOS transistor remain almost off when the voltage at the point between the two resistors is the reference voltage. a current steering circuit configured to determine a current direction through differential output terminals of the differential driver circuit; two resistors connected between the differential output terminals of the differential driver circuit; a NMOS transistor and PMOS transistor ; wherein source terminals of the NMOS transistor and PMOS transistor are connected to a point between the two resistors; drain terminals of the NMOS transistor and PMOS transistor are connected to different supply voltages; a gate terminal of the NMOS transistor is connected to a first bias voltage; a gate terminal of the PMOS transistor is connected to a second bias voltage; and wherein the first bias voltage is equal to a sum of a reference voltage and the threshold voltage of the NMOS transistor , the second bias voltage is equal to a voltage difference between the reference voltage and the threshold voltage of the PMOS transistor ; and wherein the NMOS transistor and PMOS transistor remain almost off when the voltage at the point between the two resistors is the reference voltage. source terminals of the NMOS transistor and PMOS transistor are connected to a point between the two resistors; drain terminals of the NMOS transistor and PMOS transistor are connected to different supply voltages; a gate terminal of the NMOS transistor is connected to a first bias voltage; a gate terminal of the PMOS transistor is connected to a second bias voltage; and wherein the first bias voltage is equal to a sum of a reference voltage and the threshold voltage of the NMOS transistor , the second bias voltage is equal to a voltage difference between the reference voltage and the threshold voltage of the PMOS transistor ; and wherein the NMOS transistor and PMOS transistor remain almost off when the voltage at the point between the two resistors is the reference voltage.
A method for joining an aluminum part and resin, comprising: providing an aluminum part made of aluminum or aluminum alloy; forming a bonding layer on a surface of the aluminum part by coating a liquid film of hydrolyzed silane coupling agent on the surface of the aluminum part and drying the liquid film; forming an adhesive layer formed of polyurethane adhesive on the bonding layer; curing the adhesive layer; positioning the aluminum part having the bonding layer and the adhesive layer in a injection mold; and injecting thermoplastic resin on the adhesive layer to form a resin part integrally bonded to the adhesive layer when hardened ; wherein the hydrolyzed silane coupling agent is prepared by blending a silane coupling agent containing epoxy groups and alcohol having a concentration of 95 weight percent to obtain a mixture, with the silane coupling agent having a mass percentage of 1% to 6%, and maintaining the mixture static until the silane coupling agent is fully hydrolyzed. providing an aluminum part made of aluminum or aluminum alloy; forming a bonding layer on a surface of the aluminum part by coating a liquid film of hydrolyzed silane coupling agent on the surface of the aluminum part and drying the liquid film; forming an adhesive layer formed of polyurethane adhesive on the bonding layer; curing the adhesive layer; positioning the aluminum part having the bonding layer and the adhesive layer in a injection mold; and injecting thermoplastic resin on the adhesive layer to form a resin part integrally bonded to the adhesive layer when hardened ; wherein the hydrolyzed silane coupling agent is prepared by blending a silane coupling agent containing epoxy groups and alcohol having a concentration of 95 weight percent to obtain a mixture, with the silane coupling agent having a mass percentage of 1% to 6%, and maintaining the mixture static until the silane coupling agent is fully hydrolyzed.
Contacting device for an electrically actuatable valve which is arranged within a vibration damper , comprising an electrical coil for arrangement on the electrically actuatable valve , one or more electrical cables for arrangement within a piston rod of the vibration damper , which one or more electrical cables are connected to the poles of the electrical coil , and a housing for arrangement in the piston rod , which housing is of sleeve-shaped form and forms a plug portion for mechanical and electrical coupling to a wiring harness, a coupling portion for fastening to the electrical coil and a sleeve portion , connecting these two portions , for lead-through of the at least one cable , wherein the sleeve portion has a central region , in which the at least one cable is held thereby by means of a press fit, and at least one adjoining region , in which the at least one cable runs with play with respect to the inner circumference of the sleeve portion . an electrical coil for arrangement on the electrically actuatable valve , one or more electrical cables for arrangement within a piston rod of the vibration damper , which one or more electrical cables are connected to the poles of the electrical coil , and a housing for arrangement in the piston rod , which housing is of sleeve-shaped form and forms a plug portion for mechanical and electrical coupling to a wiring harness, a coupling portion for fastening to the electrical coil and a sleeve portion , connecting these two portions , for lead-through of the at least one cable , wherein the sleeve portion has a central region , in which the at least one cable is held thereby by means of a press fit, and at least one adjoining region , in which the at least one cable runs with play with respect to the inner circumference of the sleeve portion .
A bleed air cooling system for a gas turbine engine, comprising: one or more bleed ports disposed at one or more axial locations of the gas turbine engine to divert a bleed airflow from a gas turbine engine flowpath, the gas turbine engine flowpath directing airflow from a compressor section to a turbine section via a combustor; a bleed outlet disposed at a cooling location of the gas turbine engine; a bleed duct in fluid communication with the bleed port and configured to convey the bleed airflow from the bleed port to the bleed outlet; one or more safety sensors to sense operational characteristics of the gas turbine engine; and a controller operably connected to the one or more safety sensors and configured to evaluate the sensed operational characteristics for anomalies in operation of the bleed air cooling system ; characterized in that the one or more safety sensors (82; 88) include a gaspath safety sensor disposed and configured to measure a gas turbine engine flowpath pressure of the gas turbine engine at a turbine component to be cooled by the bleed airflow ; wherein the turbine component to be cooled is disposed in the gas turbine engine flowpath; wherein the bleed duct is connected to the bleed outlet via a manifold ; and wherein the one or more safety sensors (82; 88) further include a manifold pressure sensor to detect manifold pressure. one or more bleed ports disposed at one or more axial locations of the gas turbine engine to divert a bleed airflow from a gas turbine engine flowpath, the gas turbine engine flowpath directing airflow from a compressor section to a turbine section via a combustor; a bleed outlet disposed at a cooling location of the gas turbine engine; a bleed duct in fluid communication with the bleed port and configured to convey the bleed airflow from the bleed port to the bleed outlet; one or more safety sensors to sense operational characteristics of the gas turbine engine; and a controller operably connected to the one or more safety sensors and configured to evaluate the sensed operational characteristics for anomalies in operation of the bleed air cooling system ; characterized in that the one or more safety sensors (82; 88) include a gaspath safety sensor disposed and configured to measure a gas turbine engine flowpath pressure of the gas turbine engine at a turbine component to be cooled by the bleed airflow ; wherein the turbine component to be cooled is disposed in the gas turbine engine flowpath; wherein the bleed duct is connected to the bleed outlet via a manifold ; and wherein the one or more safety sensors (82; 88) further include a manifold pressure sensor to detect manifold pressure.
A vapor chamber , comprising a sealed casing which comprises two main walls, wherein a first main wall is an evaporator wall and a second main wall is a condenser wall , wherein the two main walls are connected by side connections to form a sealed volume inside the two main walls and the side connections , wherein a plurality of pillars is provided in the sealed volume such, that the pillars connect the evaporator wall and the condenser wall , wherein the pillars have a first contact area to the evaporator wall and a second contact area to the condenser wall , and wherein the pillars further comprise an intermediate cross section area being arranged between the first contact area and the second contact area , characterized in that the extension of the intermediate cross section area is smaller compared to the extension of both of the first contact area and the second contact area .