mhurhangee/ep-ind-claims huggingface dataset:
A method for interfacing a ray tracing system, with computer executable shader code being executed during ray tracing, comprising: accepting, from shading code being executed on a processor, definition data for a ray and an association of the ray to a pixel of a 2-D image to be rendered from a 3-D scene composed of objects, through usage of a ray emit call provided in a programming semantic to which the shader code was written; selecting shader code to be executed based on an intersection testing result for the ray; accepting, during execution of the selected shader code, definitions of one or more additional rays from the selected shader code through usage of the ray emit call by the selected shader code; continuing the pixel association with each of the additional rays; selecting shader code to be executed based on intersection testing results obtained for at least some of the additional rays; and accepting contribution(s) directly into a buffer for the pixel, through usage of a contribute call provided in the programming semantic, by the shader code selected based on intersection testing results obtained for at least some of the additional rays and activated during execution of the shader code. accepting, from shading code being executed on a processor, definition data for a ray and an association of the ray to a pixel of a 2-D image to be rendered from a 3-D scene composed of objects, through usage of a ray emit call provided in a programming semantic to which the shader code was written; selecting shader code to be executed based on an intersection testing result for the ray; accepting, during execution of the selected shader code, definitions of one or more additional rays from the selected shader code through usage of the ray emit call by the selected shader code; continuing the pixel association with each of the additional rays; selecting shader code to be executed based on intersection testing results obtained for at least some of the additional rays; and accepting contribution(s) directly into a buffer for the pixel, through usage of a contribute call provided in the programming semantic, by the shader code selected based on intersection testing results obtained for at least some of the additional rays and activated during execution of the shader code.
Electrically operated slicing machine (1; 101; 201) for cutting slices from, in particular, elongated material to be cut, preferably foodstuff, with a cutting apparatus (2; 102; 202) comprising a circular blade (3; 103; 203) which is mounted in a machine housing (8; 108; 208) and rotates in a cutting plane about a first axis of rotation (x), and comprising an abutment plate (5; 105; 205) arranged parallel to the cutting plane and displaceable in the x-direction, for adjusting the slice thickness, and comprising a carriage (11; 111; 211) carrying a support plate with a support surface arranged in a horizontal plane perpendicular to the cutting plane, for supporting the material to be cut, which carriage (11; 111; 211) is guided by means of a carriage guide and is displaceable linearly parallel to the plane of the support plate and parallel to the cutting plane in a y-direction perpendicular to the first axis of rotation (x), on a slide rail (9; 109) connected to the machine housing (8; 108; 208), the carriage (11; 111; 211) being movable for cleaning purposes in the y-direction from a working position to a cleaning position and the carriage (11; 111; 211) being lockable in the working position by means of a carriage locking device (12; 112; 212), characterised in that in the unlocked state the carriage (111; 211) together with the support plate is displaceable parallel to the x-direction, on a support arrangement (110; 210) mounted on the machine housing (108; 208), away from the cutting apparatus (102; 202) by a displacement distance L to a cleaning position.
A communication terminal device (104, 304, 404, 504, 604), comprising: a Wireless Local Area Network, WLAN, access technology circuit (138, 332, 330, 530, 640) configured to provide signal transmission in accordance with a WLAN access technology and to transmit only user data encoded in accordance with the WLAN access technology; a Wide Area Network, WAN, access technology circuit (136, 326, 532, 644) configured to provide signal transmission in accordance with a WAN access technology, to transmit user data and control data encoded in accordance with the WAN technology, and to transmit control data related to the WLAN access technology over a WAN radio channel; and a Multi-Radio Resource Management, MRRM, component (126, 320, 520, 626) configured to provide control data flow between the communication terminal device (104, 304, 404, 504, 604) and the WAN network. a Wireless Local Area Network, WLAN, access technology circuit (138, 332, 330, 530, 640) configured to provide signal transmission in accordance with a WLAN access technology and to transmit only user data encoded in accordance with the WLAN access technology; a Wide Area Network, WAN, access technology circuit (136, 326, 532, 644) configured to provide signal transmission in accordance with a WAN access technology, to transmit user data and control data encoded in accordance with the WAN technology, and to transmit control data related to the WLAN access technology over a WAN radio channel; and a Multi-Radio Resource Management, MRRM, component (126, 320, 520, 626) configured to provide control data flow between the communication terminal device (104, 304, 404, 504, 604) and the WAN network.
Apparatus (100, 300, 400, 500) for delivering filamentary material into a patient including: a tubular delivery element having a proximal end, a distal end and a lumen extending within the tubular delivery element from the proximal to the distal ends; a material receptacle having an aperture for receiving driving fluid into the receptacle, and an outlet coupled to the lumen of the tubular delivery element, the outlet extending in a material dispensing direction of the receptacle; a carrier element (150, 200,310, 450, 550), for carrying filamentary material the carrier element including a body portion around which filamentary material can be wound, characterised by the body portion having an axis substantially aligned with the material dispensing direction of the receptacle. a tubular delivery element having a proximal end, a distal end and a lumen extending within the tubular delivery element from the proximal to the distal ends; a material receptacle having an aperture for receiving driving fluid into the receptacle, and an outlet coupled to the lumen of the tubular delivery element, the outlet extending in a material dispensing direction of the receptacle; a carrier element (150, 200,310, 450, 550), for carrying filamentary material the carrier element including a body portion around which filamentary material can be wound, characterised by the body portion having an axis substantially aligned with the material dispensing direction of the receptacle.
An apparatus for manufacturing three-dimensional objects by selective solidification of a build material applied in layers, - having a build platform, arranged in an X-Y plane, on which at least one three-dimensional object is generated in layers, - having a heating element, at least partly overlying the build platform, for inputting thermal energy into the build material, - having a drive device for generating a relative motion in an X and/or Y direction between the build platform and the heating element, the heating element comprising at least two simultaneously usable functional openings (18, 19), one of the at least two functional openings being embodied as a material passthrough and another of the at least two functional openings being embodied as a radiation passthrough, and having an additional heating and/or cooling device for controlling the temperature of build material applied through the material passthrough. - having a build platform, arranged in an X-Y plane, on which at least one three-dimensional object is generated in layers, - having a heating element, at least partly overlying the build platform, for inputting thermal energy into the build material, - having a drive device for generating a relative motion in an X and/or Y direction between the build platform and the heating element,
A wind turbine blade comprising: an outer skin defining an external appearance; an inner skin spaced apart from the outer skin; a plurality of spar caps positioned between the outer skin and the inner skin and spaced apart from each other in a thickness direction of the blade; and shear webs configured to connect the plurality of spar caps, wherein at least one of the plurality of spar caps is a second-type spar cap, and the other spar caps are first-type spar caps, wherein the first-type spar caps include support plates (161, 361) that are stacked and that have reinforcing fibers, and the support plates (161, 361) are bonded through a resin bonding layer, wherein the second-type spar cap includes reinforcing fiber sheets and a resin body that surrounds and supports the reinforcing fiber sheets, and wherein: the blade has an airfoil cross-section and comprises a pressure side, a suction side, a leading edge through which wind enters, and a trailing edge through which wind exits; the blade comprises a first spar cap (151, 251, 351) positioned adjacent to the leading edge on the pressure side, a second spar cap (152, 252) positioned adjacent to the trailing edge on the pressure side, a third spar cap (153, 253) positioned adjacent to the leading edge on the suction side, and a fourth spar cap (154, 254) positioned adjacent to the trailing edge on the suction side; the second spar cap (152, 252) is a second-type spar cap; and each of the third spar cap (153, 253) and the fourth spar cap (154, 254) is a first-type spar cap. an outer skin defining an external appearance; an inner skin spaced apart from the outer skin; a plurality of spar caps positioned between the outer skin and the inner skin and spaced apart from each other in a thickness direction of the blade; and shear webs configured to connect the plurality of spar caps, wherein at least one of the plurality of spar caps is a second-type spar cap, and the other spar caps are first-type spar caps, wherein the first-type spar caps include support plates (161, 361) that are stacked and that have reinforcing fibers, and the support plates (161, 361) are bonded through a resin bonding layer, wherein the second-type spar cap includes reinforcing fiber sheets and a resin body that surrounds and supports the reinforcing fiber sheets, and the blade has an airfoil cross-section and comprises a pressure side, a suction side, a leading edge through which wind enters, and a trailing edge through which wind exits; the blade comprises a first spar cap (151, 251, 351) positioned adjacent to the leading edge on the pressure side, a second spar cap (152, 252) positioned adjacent to the trailing edge on the pressure side, a third spar cap (153, 253) positioned adjacent to the leading edge on the suction side, and a fourth spar cap (154, 254) positioned adjacent to the trailing edge on the suction side; the second spar cap (152, 252) is a second-type spar cap; and each of the third spar cap (153, 253) and the fourth spar cap (154, 254) is a first-type spar cap.
A data sending method, wherein the method comprises: obtaining, by the user equipment, competitive resource configuration information for sending communication service data, wherein the competitive resource configuration information comprises a competitive resource style and a preset strength threshold; wherein the competitive resource style comprises a distribution rule of multiple competitive resources; determining, by the user equipment according to the competitive resource style, the multiple competitive resources configured for the user equipment; measuring, by the user equipment, a strength of a wireless signal received on the multiple competitive resources; determining, by the user equipment, one or more available resources according to the preset strength threshold and the strength of the wireless signal; and sending, by the user equipment, the communication service data on the one or more available competitive resources. obtaining, by the user equipment, competitive resource configuration information for sending communication service data, wherein the competitive resource configuration information comprises a competitive resource style and a preset strength threshold; wherein the competitive resource style comprises a distribution rule of multiple competitive resources; determining, by the user equipment according to the competitive resource style, the multiple competitive resources configured for the user equipment; measuring, by the user equipment, a strength of a wireless signal received on the multiple competitive resources; determining, by the user equipment, one or more available resources according to the preset strength threshold and the strength of the wireless signal; and sending, by the user equipment, the communication service data on the one or more available competitive resources.
A method to receive control information, the method performed by a base station, BS, (100; 200) in a wireless communication system, the method comprising: selecting a BS receive beam for uplink communication with a mobile station, MS, (110; 210, 220, 230) wherein the selected BS receive beam is one of a plurality of BS receive beams formed by an antenna array of the BS, and the plurality of BS receive beams have different beam directions and different beam coverages; identifying a control channel resource region mapped to the selected BS receive beam from among a plurality of control channel resource regions in an uplink interval, wherein the uplink interval is configured for a control channel and includes the plurality of control channel resource regions corresponding to the plurality of BS receive beams respectively, and the plurality of control channel resource regions are divided on a time domain or a frequency domain in the uplink interval; and receiving the control information from the MS on the identified control channel resource region through the selected BS receive beam. selecting a BS receive beam for uplink communication with a mobile station, MS, (110; 210, 220, 230) wherein the selected BS receive beam is one of a plurality of BS receive beams formed by an antenna array of the BS, and the plurality of BS receive beams have different beam directions and different beam coverages; identifying a control channel resource region mapped to the selected BS receive beam from among a plurality of control channel resource regions in an uplink interval, wherein the uplink interval is configured for a control channel and includes the plurality of control channel resource regions corresponding to the plurality of BS receive beams respectively, and the plurality of control channel resource regions are divided on a time domain or a frequency domain in the uplink interval; and receiving the control information from the MS on the identified control channel resource region through the selected BS receive beam.
A water impervious wall panel system comprising: an intermediate first wall panel composed of a core of wood plastics composite foamed board composed of PVC and wood fibre and a high pressure laminate adhesively attached to the core, wherein the intermediate first wall panel is provided with tongue-and-groove edges (31, 32), and an end second wall panel composed of a core of wood plastics composite foamed board composed of PVC and wood fibre and a high pressure laminate adhesively attached to the core, wherein the end second wall panel is provided with a tongue-and-groove edge and a rolled edge, wherein one of the tongue-and-groove edges (31, 32) of the intermediate first wall panel and the tongue-and-groove edge of the end second wall panel form an interlocking system having a contact area adjacent to the front face of the intermediate first wall panel and the end second wall panel, the contact area in a plane perpendicular to the panels extending across less than the thickness of the intermediate first wall panel and the end second wall panel so as to provide a tight join at the front face and eliminate visible gaps. an intermediate first wall panel composed of a core of wood plastics composite foamed board composed of PVC and wood fibre and a high pressure laminate adhesively attached to the core, wherein the intermediate first wall panel is provided with tongue-and-groove edges (31, 32), and an end second wall panel composed of a core of wood plastics composite foamed board composed of PVC and wood fibre and a high pressure laminate adhesively attached to the core, wherein the end second wall panel is provided with a tongue-and-groove edge and a rolled edge, wherein one of the tongue-and-groove edges (31, 32) of the intermediate first wall panel and the tongue-and-groove edge of the end second wall panel form an interlocking system having a contact area adjacent to the front face of the intermediate first wall panel and the end second wall panel, the contact area in a plane perpendicular to the panels extending across less than the thickness of the intermediate first wall panel and the end second wall panel so as to provide a tight join at the front face and eliminate visible gaps.
A method of measuring elongation of a fastener with ultrasound, performed by a power tool in acoustic contact with the fastener, comprising: - transmitting a set of primary minimum peak side lobe coded ultrasonic signals with different base frequencies into the fastener, - receiving a corresponding set of reflected primary ultrasonic signals from the fastener, - cross-correlating each reflected primary ultrasonic signal with the corresponding transmitted primary ultrasonic signal, thus obtaining a set of primary cross-correlated signals, - determining a quality attribute of each transmitted primary signal from the set of primary cross-correlated signals, - determining at least one parameter of an ultrasonic measurement signal, for performing measurements of the fastener, based on the quality attributes of the set of transmitted primary signals, - transmitting the ultrasonic measurement signal into the fastener, - receiving a reflected ultrasonic measurement signal from the fastener, and - measuring the elongation of the fastener based on the reflected ultrasonic measurement signal. - transmitting a set of primary minimum peak side lobe coded ultrasonic signals with different base frequencies into the fastener, - receiving a corresponding set of reflected primary ultrasonic signals from the fastener, - cross-correlating each reflected primary ultrasonic signal with the corresponding transmitted primary ultrasonic signal, thus obtaining a set of primary cross-correlated signals, - determining a quality attribute of each transmitted primary signal from the set of primary cross-correlated signals, - determining at least one parameter of an ultrasonic measurement signal, for performing measurements of the fastener, based on the quality attributes of the set of transmitted primary signals, - transmitting the ultrasonic measurement signal into the fastener, - receiving a reflected ultrasonic measurement signal from the fastener, and - measuring the elongation of the fastener based on the reflected ultrasonic measurement signal.
A fluid dispenser device comprising a dispenser head provided with a dispenser orifice, an air expeller for generating a flow of air while the device is being actuated, and a reservoir containing a single dose of fluid, said reservoir including a proximal axial end and a distal axial end, and being mounted in removable manner in said dispenser head so that after the device has been actuated, the empty reservoir can be removed from said device and replaced by a new full reservoir, said air expeller being adapted to return to its rest position so as to enable a new actuation with said new full reservoir, said device being characterized in that said dispenser head includes a proximal perforator tip that is adapted to perforate said proximal axial end of said reservoir, and in that it includes a movable perforator member that is arranged to slide axially around said dispenser head between a loading position and an actuation position, said movable perforator member including a distal perforator tip that is adapted to perforate the distal axial end of said reservoir when said movable perforator member is moved into its actuation position.
An infrared motion sensor system, comprising: a sensor unit comprising at least a first infrared motion sensor having a predetermined field of view; at least a first target located at a predetermined distance from the first sensor within the field of view of the first sensor, the first target emitting a non-uniform pattern of IR radiation in a first direction; and a processor which monitors the first sensor output signal over time to determine periodic current sensor output temperature profiles, compares each current sensor output temperature profile to a signature output temperature profile corresponding to the non-uniform pattern of IR radiation emitted by the first target, and provides an alarm output on detection of variations between the current sensor output temperature profile and the signature output temperature profile; and characterised in that: the first target comprises a constant temperature target member, a target-occluding member between the target member and the first sensor, and a drive device which reciprocates one of the members relative to the other member whereby the IR emission of the target member is alternately blocked and un-blocked by the target-occluding member to produce a temporally non-uniform IR emission. a sensor unit comprising at least a first infrared motion sensor having a predetermined field of view; at least a first target located at a predetermined distance from the first sensor within the field of view of the first sensor, the first target emitting a non-uniform pattern of IR radiation in a first direction; and a processor which monitors the first sensor output signal over time to determine periodic current sensor output temperature profiles, compares each current sensor output temperature profile to a signature output temperature profile corresponding to the non-uniform pattern of IR radiation emitted by the first target, and provides an alarm output on detection of variations between the current sensor output temperature profile and the signature output temperature profile; and characterised in that: the first target comprises a constant temperature target member, a target-occluding member between the target member and the first sensor, and a drive device which reciprocates one of the members relative to the other member whereby the IR emission of the target member is alternately blocked and un-blocked by the target-occluding member to produce a temporally non-uniform IR emission.