mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for processing data in response to one or more threads of program instructions, said apparatus comprising: data processing circuitry configured to be responsive a current program instruction within a thread of program instructions to perform a current data processing operation specified by said current program instruction, wherein said current program instruction includes a next-instruction-type field specifying a type of a next program instruction to be executed within said thread, said data processing circuitry performs, under control of said next-instruction-type field, one or more processing operations forming a part of processing said next program instruction, said processing circuitry comprises a plurality of processing pipelines, (38, 40, 42, 44), and said part of processing said next program instruction comprises selection of a next processing pipeline of said plurality of processing pipelines to which said next program instruction is directed for execution; and said next-instruction-type field is redundant information as said next program instruction also specifies said type as specified by said next-instruction-type field. data processing circuitry configured to be responsive a current program instruction within a thread of program instructions to perform a current data processing operation specified by said current program instruction, wherein said current program instruction includes a next-instruction-type field specifying a type of a next program instruction to be executed within said thread, said data processing circuitry performs, under control of said next-instruction-type field, one or more processing operations forming a part of processing said next program instruction, said processing circuitry comprises a plurality of processing pipelines, (38, 40, 42, 44), and said part of processing said next program instruction comprises selection of a next processing pipeline of said plurality of processing pipelines to which said next program instruction is directed for execution; and said next-instruction-type field is redundant information as said next program instruction also specifies said type as specified by said next-instruction-type field.
Use of a hydric solvent to enhance fragrance longevity on skin of a rinse-off cleansing composition, wherein the composition comprises: a) from 35% to 85%, by weight of the composition, of surfactant, wherein the surfactant comprises a first surfactant and a cosurfactant; b) from 4% to 30%, by weight of the composition, of a perfume, wherein the weight percent of perfume is from 8% to 90%, by weight of the surfactant; c) from 6% to 20%, by weight of the composition, of a hydric solvent, wherein the hydric solvent comprises dipropylene glycol, diethylene glycol, dibutylene glycol, hexylene glycol, butylene glycol, pentanediol, heptanediol, propylene glycol, a polyethylene glycol having an average molecular weight below 500, or a combination thereof, and wherein the weight percent of the hydric solvent is from 16% to 24%, by weight of the surfactant; and d) from 2% to 57%, by weight of the composition, of water; wherein the rinse-off cleansing composition is not a ringing gel, and wherein the composition is a microemulsion or contains a microemulsion phase.
A head-mounted display device for interface with a medical device configured to perform an invasive procedure on a patient, comprising: a frame configured to be mounted on a person's head; a display; a camera; a wireless transceiver configured to communicate with a network; and a processing circuit coupled to the frame, the display, the camera and the wireless transceiver, wherein the processing circuit is configured to acquire an image of a component of the medical device with the camera, to process the image to identify a characteristic of the component, to compare the characteristic to predetermined data for the component, and to generate output data based on the comparison; characterised in that the component is a disposable component configured to be loaded into the medical device, wherein the predetermined data is data indicating a type of disposable component approved for use with the medical device, wherein the comparison indicates whether the disposable component is of a known type, and wherein, if the comparison indicates that the disposable component is not of a type approved for use with the medical device, the output data comprises a message indicating the disposable component is not approved for use with the medical device. a frame configured to be mounted on a person's head; a display; a camera; a wireless transceiver configured to communicate with a network; and a processing circuit coupled to the frame, the display, the camera and the wireless transceiver, wherein the processing circuit is configured to acquire an image of a component of the medical device with the camera, to process the image to identify a characteristic of the component, to compare the characteristic to predetermined data for the component, and to generate output data based on the comparison; characterised in that the component is a disposable component configured to be loaded into the medical device, wherein the predetermined data is data indicating a type of disposable component approved for use with the medical device, wherein the comparison indicates whether the disposable component is of a known type, and wherein, if the comparison indicates that the disposable component is not of a type approved for use with the medical device, the output data comprises a message indicating the disposable component is not approved for use with the medical device.
A detector for detecting a hazardous safety condition, the detector comprising: a housing; an electrochromic material disposed within the housing; and a battery providing a power source in operative electrical communication with the electrochromic material, the electrochromic material providing a visual display to indicate a condition of the detector; characterised in that the condition of the detector is an end of life battery condition; and in that the visual display to indicate the end of life battery condition is maintained after the battery has reached the end of life condition. a housing; an electrochromic material disposed within the housing; and a battery providing a power source in operative electrical communication with the electrochromic material, the electrochromic material providing a visual display to indicate a condition of the detector; characterised in that the condition of the detector is an end of life battery condition; and in that the visual display to indicate the end of life battery condition is maintained after the battery has reached the end of life condition.
A high-pressure composite vessel comprising a casing producible through blow-moulding a thermoplastic material of a preform and integral with a preform collar, a connection pipe fitting with a retaining collar, an o-ring seal mounted in an inner sealing groove shaped in the connection pipe fitting, and a Seeger ring mounted in an external ring-shaped fixing groove shaped in the connection pipe fitting opposite to the inner sealing groove, to fix the preform collar in the connection pipe fitting, wherein an annular groove is shaped in the external side of the preform collar, and said annular groove is facing the external ring-shaped fixing groove shaped in the connection pipe fitting after mounting the casing to the connection pipe fitting, and in that the inner sealing groove is facing the inner cylindrical side of the preform collar.
Multiway valve with a valve housing, in which is formed a valve chamber, in which a valve member capable of axial movement while performing a switching movement is located, which valve member has a main body having a peripheral outer circumferential surface and supporting at least one annular sealing plate, which projects radially relative to the outer circumferential surface and has two axial end faces (26, 27) opposite each other, wherein axially opposite at least one of these axial end faces (26, 27), there is located an annular valve seat (15, 16), which is supported relative to the valve housing and frames an overflow opening (18, 19) connecting two valve chamber sections (17a, 17b; 17a, 17c) of the valve chamber and against which the sealing plate can bear with one of its two end faces (26, 27) while adopting a closed position blocking the overflow opening (18, 19), wherein the sealing plate is at its radial outer circumferential surface coaxially enclosed by a supporting ring, which limits the deformation of the sealing plate and is exclusively fixed to the sealing plate, characterised in that, as viewed in cross-section, the annular body of the sealing plate has a block shape with a rectangular cross-sectional profiling, wherein at the radial outer circumferential surface of the sealing plate there is formed at least one annular holding groove, with which an annular holding projection formed on the supporting ring engages positively.
A switched-beam wireless power transmission system, comprising: at least one electromagnetic radiation source; a plurality of wireless power receivers each collocated with a beacon (48, 50, 52) that radiates a pilot signal (54, 58, 62) when the beacon (48,50,52) is in an active state; an array of transmitting antennas (34 a-d) that receives the pilot signal (54,58,62) from the active beacon (48,50,52) and radiates electromagnetic radiation (56, 60, 64) from the at least one electromagnetic radiation source in the direction of the wireless power receiver collocated with the beacon (48,50,52) in the active state, wherein the direction of the radiated electromagnetic radiation (56,60,64) is switched among the wireless power receivers based upon which beacon (48,50,52) is in an active state; characterised by wherein the wireless power receivers and the beacons (48,50,52) are on an aircraft; wherein the beacons (48,50,52) are successively activated to successively direct the electromagnetic radiation (56,60,64) to different wireless power receivers on the aircraft; and wherein the transmitting antennas (34a-d) are retrodirective antennas that are steered at least in part electronically successively to the different wireless power receivers on the aircraft. at least one electromagnetic radiation source; a plurality of wireless power receivers each collocated with a beacon (48, 50, 52) that radiates a pilot signal (54, 58, 62) when the beacon (48,50,52) is in an active state; an array of transmitting antennas (34 a-d) that receives the pilot signal (54,58,62) from the active beacon (48,50,52) and radiates electromagnetic radiation (56, 60, 64) from the at least one electromagnetic radiation source in the direction of the wireless power receiver collocated with the beacon (48,50,52) in the active state, wherein the direction of the radiated electromagnetic radiation (56,60,64) is switched among the wireless power receivers based upon which beacon (48,50,52) is in an active state; characterised by wherein the wireless power receivers and the beacons (48,50,52) are on an aircraft; wherein the beacons (48,50,52) are successively activated to successively direct the electromagnetic radiation (56,60,64) to different wireless power receivers on the aircraft; and wherein the transmitting antennas (34a-d) are retrodirective antennas that are steered at least in part electronically successively to the different wireless power receivers on the aircraft.
A rearview assembly comprising: a housing; a connector configured to be secured to a button within a vehicle, the connector including a mount connecting feature with a plurality of distinct connection locations (22a, 22b, 22c); and a mount including a proximal end operably coupled with the housing and a distal end including a location feature configured to engage one of the plurality of distinct connection locations (22a, 22b, 22c); wherein the location feature includes forward flanges (92, 93) and rearward flanges (94, 95) disposed within the mount; the rearview assembly being characterized in that: the forward flanges (92, 93) and rearward flanges (94, 95) of the location feature intersect a cylindrical boss (96, 97) that extends into a receiving socket (102, 106) defined in the connector. a housing; a connector configured to be secured to a button within a vehicle, the connector including a mount connecting feature with a plurality of distinct connection locations (22a, 22b, 22c); and a mount including a proximal end operably coupled with the housing and a distal end including a location feature configured to engage one of the plurality of distinct connection locations (22a, 22b, 22c); wherein the location feature includes forward flanges (92, 93) and rearward flanges (94, 95) disposed within the mount; the rearview assembly being characterized in that: the forward flanges (92, 93) and rearward flanges (94, 95) of the location feature intersect a cylindrical boss (96, 97) that extends into a receiving socket (102, 106) defined in the connector.
A method for automatically controlling a height of a harvesting implement of an agricultural work vehicle relative to a ground surface, the harvesting implement being provided in operative association with both a height cylinder configured to adjust a vertical positioning of the harvesting implement relative to the ground surface and a tilt cylinder configured to adjust a lateral tilt of the harvesting implement relative to the ground surface, the method being characterized by: receiving, with a computing device, height data from a plurality of height sensors spaced apart relative to the harvesting implement with a known spatial relationship; performing, with the computing device, a linear regression analysis to establish a correlation between the height data and position data associated with the known spatial relationship of the plurality of height sensors, the established correlation being indicative of a regression line fit through a dataset including the height data and the position data; determining, with the computing device, at least one control output for controlling an operation of the height cylinder and the tilt cylinder based on the established correlation, wherein determining the at least one control output comprises determining a height control output for controlling the operation of the height cylinder based on a height value defined along the regression line that is associated with a fixed reference point on the harvesting implement; and controlling, with the computing device, the operation of at least one of the height cylinder or the tilt cylinder based on the at least one control output to adjust at least one of the vertical positioning or the lateral tilt of the harvesting attachment relative to the ground surface. receiving, with a computing device, height data from a plurality of height sensors spaced apart relative to the harvesting implement with a known spatial relationship; performing, with the computing device, a linear regression analysis to establish a correlation between the height data and position data associated with the known spatial relationship of the plurality of height sensors, the established correlation being indicative of a regression line fit through a dataset including the height data and the position data; determining, with the computing device, at least one control output for controlling an operation of the height cylinder and the tilt cylinder based on the established correlation, wherein determining the at least one control output comprises determining a height control output for controlling the operation of the height cylinder based on a height value defined along the regression line that is associated with a fixed reference point on the harvesting implement; and controlling, with the computing device, the operation of at least one of the height cylinder or the tilt cylinder based on the at least one control output to adjust at least one of the vertical positioning or the lateral tilt of the harvesting attachment relative to the ground surface.
Method for determining a torsional moment of a wheelset shaft of a rail vehicle during the operation of the rail vehicle, wherein the wheelset shaft has a shaft and two wheels secured to ends of the shaft, wherein the wheels are provided for rolling on two rails, wherein a model is used to calculate a torsional moment which acts on the wheelset shaft, wherein the model is based on a torsional vibration of the wheelset shaft at a specified slip action point, wherein the torsional moment acting on the wheelset shaft is ascertained on the basis of an energy of the torsional vibration of the wheelset shaft at the slip action point and on the basis of a damping energy which acts on the wheelset shaft during the torsional vibration.
An apparatus, comprising: a scan beam projector configured to project a light beam; an optical waveguide including a bulk-substrate, an input-coupler an output-coupler, and a diffractive optical element between the input-coupler and the output-coupler; and an exit pupil expander optically coupled between the scan beam projector and the optical waveguide, the exit pupil expander configured to couple the light beam from the scan beam projector into the input-coupler, the exit expander comprising a dual microlens array configured to expand an exit pupil associated with the scan beam projector, wherein the dual microlens array comprises a first microlens array that is configured to receive the light beam in first lenses in a first plane and a second microlens array that is configured to output the light beam in second lenses in a second plane parallel to the first plane, wherein the first lenses are periodic and the second lenses are non-periodic. a scan beam projector configured to project a light beam; an optical waveguide including a bulk-substrate, an input-coupler an output-coupler, and a diffractive optical element between the input-coupler and the output-coupler; and an exit pupil expander optically coupled between the scan beam projector and the optical waveguide, the exit pupil expander configured to couple the light beam from the scan beam projector into the input-coupler, the exit expander comprising a dual microlens array configured to expand an exit pupil associated with the scan beam projector, wherein the dual microlens array comprises a first microlens array that is configured to receive the light beam in first lenses in a first plane and a second microlens array that is configured to output the light beam in second lenses in a second plane parallel to the first plane, wherein the first lenses are periodic and the second lenses are non-periodic.
A device for dispensing a fluid under pressure comprising: a flexible container comprising four panels (18, 20, 22, 24), each panel formed from a flexible multilayer film composed of one or more polymeric materials, the four panels (18, 20, 22, 24) forming: (i) a body, and (ii) a neck; a fitment comprising a top portion and a base, the base composed of a polymeric material, the base sealed in the neck, characterised in that the device further comprises: a sleeve bag-on-valve assembly (SBoV) located in the body, the SBoV comprising: (i) a valve (ii) a valve housing, (iii) a core tube attached to the valve housing, (iv) a bag around the core tube, the bag attached to the valve housing, (v) a sleeve surrounding the bag and the core tube, and (vi) a valve seat; the valve seat attached to the fitment. a flexible container comprising four panels (18, 20, 22, 24), each panel formed from a flexible multilayer film composed of one or more polymeric materials, the four panels (18, 20, 22, 24) forming: (i) a body, and (ii) a neck; (i) a body, and (ii) a neck; a fitment comprising a top portion and a base, the base composed of a polymeric material, the base sealed in the neck, a sleeve bag-on-valve assembly (SBoV) located in the body, the SBoV comprising: (i) a valve (ii) a valve housing, (iii) a core tube attached to the valve housing, (iv) a bag around the core tube, the bag attached to the valve housing, (v) a sleeve surrounding the bag and the core tube, and (vi) a valve seat; (i) a valve (ii) a valve housing, (iii) a core tube attached to the valve housing, (iv) a bag around the core tube, the bag attached to the valve housing, (v) a sleeve surrounding the bag and the core tube, and (vi) a valve seat; the valve seat attached to the fitment.
A clot retrieval device to remove clot from a blood vessel, the device comprising a collapsed configuration and an expanded configuration and comprising: an inner expandable body comprising a framework of struts that form closed cells; and an outer expandable body comprising a framework of struts that form closed cells (186, 187, 189) larger than the closed cells of the inner expandable body and at least partially radially surrounding the inner expandable body, the outer expandable body comprising a distal scaffolding zone comprising a plurality of struts that distally taper with closed cells smaller than cells proximal thereof in the outer expandable body; the plurality of closed cells of the distal scaffolding zone comprising: a first plurality of closed cells being axially aligned smaller diamond shaped cells formed by struts of the distal scaffolding zone; a second plurality of closed cells being larger than cells of the first plurality of closed cells and radially separated, each smaller diamond shaped cell being radially inward and distal of each of the second plurality of closed cells; and a third plurality of closed cells radially separated and proximal of each of the second plurality of closed cells; and a fourth plurality of closed cells radially inward and distal of the first plurality of closed cells. an inner expandable body comprising a framework of struts that form closed cells; and an outer expandable body comprising a framework of struts that form closed cells (186, 187, 189) larger than the closed cells of the inner expandable body and at least partially radially surrounding the inner expandable body, the outer expandable body comprising a distal scaffolding zone comprising a plurality of struts that distally taper with closed cells smaller than cells proximal thereof in the outer expandable body; the plurality of closed cells of the distal scaffolding zone comprising: a first plurality of closed cells being axially aligned smaller diamond shaped cells formed by struts of the distal scaffolding zone; a second plurality of closed cells being larger than cells of the first plurality of closed cells and radially separated, each smaller diamond shaped cell being radially inward and distal of each of the second plurality of closed cells; and a third plurality of closed cells radially separated and proximal of each of the second plurality of closed cells; and a fourth plurality of closed cells radially inward and distal of the first plurality of closed cells. a first plurality of closed cells being axially aligned smaller diamond shaped cells formed by struts of the distal scaffolding zone; a second plurality of closed cells being larger than cells of the first plurality of closed cells and radially separated, each smaller diamond shaped cell being radially inward and distal of each of the second plurality of closed cells; and a third plurality of closed cells radially separated and proximal of each of the second plurality of closed cells; and a fourth plurality of closed cells radially inward and distal of the first plurality of closed cells.