mhurhangee/ep-ind-claims huggingface dataset:
Method for determining a current gaze direction of a user in relation to a three-dimensional ("3D") scene, the 3D scene being sampled by a rendering function to produce at least one projection image of the 3D scene, wherein the method comprises the steps: determining, by a reprojection means, a reprojection transformation to be applied to the projection image before being displayed so as to be visible to the user at a gaze time point; determining, by a gaze direction detection means, a physical gaze direction of the user at said gaze time point; and characterized by determining, » by a modified gaze direction detection means, a modified gaze direction of the user at said gaze time point, the modified gaze direction being determined in relation to the 3D scene based on both the physical gaze direction and the reprojection transformation, wherein the determination of the modified gaze direction is performed without the rendering function obtaining direct information regarding the said modified gaze direction. determining, by a reprojection means, a reprojection transformation to be applied to the projection image before being displayed so as to be visible to the user at a gaze time point; determining, by a gaze direction detection means, a physical gaze direction of the user at said gaze time point; and characterized by determining, » by a modified gaze direction detection means, a modified gaze direction of the user at said gaze time point, the modified gaze direction being determined in relation to the 3D scene based on both the physical gaze direction and the reprojection transformation, wherein the determination of the modified gaze direction is performed without the rendering function obtaining direct information regarding the said modified gaze direction.
An RFID apparatus for the UHF range in accordance with ISO 18000-6 for communicating with at least one RFID transponder, the RFID apparatus comprising an RFID transceiver for radiating and receiving RFID signals and a control unit that is configured to encode RFID information into the RFID signal or to read it from the RFID signal in accordance with an RFID protocol, and a singulation process being implemented in the control unit with the singulation process being adapted to give a command to only one respective RFID transponder based on an identification parameter, characterized in that the control unit is configured to add an additional check of a communication parameter of the RFID signal itself, which is independent of RFID information encoded in the RFID signal, to an inventory for expanding the singulation process, so that also a singulation of RFID transponders having an identical identification parameter is possible.
A fluid flow circuit system for fluid processing, comprising: a disposable module including a housing with walls having a plurality of openings; a separator at least partially enclosed by the walls of the housing; and a plurality of flow paths communicating between an interior and an exterior of the housing via the plurality of openings, wherein the plurality of flow paths are disposed along multiple planes (A-D); and a durable module including a loading platform configured to engage at least one of the housing, separator, and plurality of flow paths, wherein the loading platform is capable of translational motion at least partially independent of a remainder of the durable module. a disposable module including a housing with walls having a plurality of openings; a separator at least partially enclosed by the walls of the housing; and a plurality of flow paths communicating between an interior and an exterior of the housing via the plurality of openings, wherein the plurality of flow paths are disposed along multiple planes (A-D); and a housing with walls having a plurality of openings; a separator at least partially enclosed by the walls of the housing; and a plurality of flow paths communicating between an interior and an exterior of the housing via the plurality of openings, wherein the plurality of flow paths are disposed along multiple planes (A-D); and a durable module including a loading platform configured to engage at least one of the housing, separator, and plurality of flow paths, wherein the loading platform is capable of translational motion at least partially independent of a remainder of the durable module.
A data processing method, applied to a first communications board which is located on a same device as a second communications board, comprising: Acquiring, by the first communications board, an optical channel data unit, ODU, data flow; Performing, by the first communications board, slicing processing on the ODU data flow according to a fixed frame frequency, so as to obtain various slices, wherein each slice comprises a section of continuous ODU data in the ODU data flow; separately encapsulating, by the first communications board, each slice into an Ethernet frame, wherein the Ethernet frame carries at least a destination Media Access Control, MAC, address and a payload area, wherein the destination MAC address directs to the second communications board and the payload area is used to store the ODU data in the slice and a serial number of the slice; and sending, by the first communications board, each Ethernet frame to a time division multiplexing, TDM, service switching module in an Ethernet switching chip, so that the TDM service switching module sends each Ethernet frame to the second communications board to which the destination MAC address carried in the Ethernet frame directs. Acquiring, by the first communications board, an optical channel data unit, ODU, data flow; Performing, by the first communications board, slicing processing on the ODU data flow according to a fixed frame frequency, so as to obtain various slices, wherein each slice comprises a section of continuous ODU data in the ODU data flow; separately encapsulating, by the first communications board, each slice into an Ethernet frame, wherein the Ethernet frame carries at least a destination Media Access Control, MAC, address and a payload area, wherein the destination MAC address directs to the second communications board and the payload area is used to store the ODU data in the slice and a serial number of the slice; and sending, by the first communications board, each Ethernet frame to a time division multiplexing, TDM, service switching module in an Ethernet switching chip, so that the TDM service switching module sends each Ethernet frame to the second communications board to which the destination MAC address carried in the Ethernet frame directs.
Granular material comprising an inorganic solid support on which at least one biosurfactant selected from the group comprising sophorolipids and rhamnolipids, especially sophorolipid, is present, characterized in that the support comprises at least one solid material selected from the group comprising carbonates, sesquicarbonates, percarbonates, perborates, sulphates, silicates, aluminosilicates, zeolites, precipitated silicas and fumed silicas.
A sheet processing apparatus comprising: a stacking unit that includes a right wall and a left wall and is configured to stack the sheets therein; a support member that is arranged in the stacking unit, configured to support from below the sheets stacked in the stacking unit, and provided with a through part for passing ultrasonic waves through the support member, wherein the through part is blocked by the sheets stacked on the support member in the stacking unit; a transmitting unit that is arranged above the support member and configured to transmit the ultrasonic waves from a transmitting surface of the transmitting unit downward toward the support member; a reflecting unit that is arranged below the support member and configured to reflect the ultrasonic waves transmitted from the transmitting surface of the transmitting unit and passed through the through part; and a receiving unit that is configured to receive at a receiving surface of the receiving unit the ultrasonic waves reflected by the reflecting unit to detect the sheets stacked on the support member, wherein the transmitting surface faces downward, and the receiving surface is parallel to a vertical direction or faces downward. a stacking unit that includes a right wall and a left wall and is configured to stack the sheets therein; a support member that is arranged in the stacking unit, configured to support from below the sheets stacked in the stacking unit, and provided with a through part for passing ultrasonic waves through the support member, wherein the through part is blocked by the sheets stacked on the support member in the stacking unit; a transmitting unit that is arranged above the support member and configured to transmit the ultrasonic waves from a transmitting surface of the transmitting unit downward toward the support member; a reflecting unit that is arranged below the support member and configured to reflect the ultrasonic waves transmitted from the transmitting surface of the transmitting unit and passed through the through part; and a receiving unit that is configured to receive at a receiving surface of the receiving unit the ultrasonic waves reflected by the reflecting unit to detect the sheets stacked on the support member, wherein the transmitting surface faces downward, and the receiving surface is parallel to a vertical direction or faces downward.
Suspension crane comprising two suspended parallel running rails which each form a running surface for a driven running gear unit (7a, 7b), and comprising a crane bridge which is suspended from the running gear units (7a, 7b) on both sides, wherein each running gear unit (7a, 7b) has a drive in the form of an electric motor (M1, M2), so that both electric motors (M1, M2) can be controlled in parallel and both running gear units (7a, 7b) can be driven thereby, and comprising a device for detecting a skew of the crane bridge which intervenes in a controlling manner into the drive of one of the running gear units to rectify the skew, wherein the device records the skewed position of the crane bridge relative to the one of the running gear units, for which reason the device is arranged between the crane bridge and the one of the running gear units, comprises relative movement detection by means of a sensor device, wherein the sensor device is configured to evaluate the difference in the signals coming from the sensors in order thereby to determine the skew position by means of a differential circuit and to cause same to influence a drive controller such that in order to rectify the skew the device increases or decreases the rotational speed of the electric motor of the drive of the one of the running gear units via the drive controller, characterised in that the sensor device comprises two units which are movable relative to one another and a first one of the units has two mutually opposite stops, which are designed as switches (8, 10) and are arranged with fixed orientation with respect to the one of the running gear units or with respect to the crane bridge, and a second one of the units has a push rod which extends between the stops and is arranged with fixed orientation with respect to the crane bridge or with respect to the one of the running gear units.
A power management arbiter system for managing a print fleet system, the print fleet system comprising a plurality of printers (1,2), characterised in that the power management arbiter system is configured to manage the power up of the print fleet system, each printer of the plurality of printers comprising a plurality of functional modules like a print engine (12,13,22,23) and a heater, a power controller (15,25), a communication interface (16, 26) with the power management arbiter system, the power management arbiter system being configured to determine which functional modules are allowed to power up, and, if allowed, at which point in time, wherein the determination of which functional modules are allowed to power up, and, if allowed, at which point in time, takes into account historical data and actual physical data stored in the printers of the print fleet system or stored in storage of the power management arbiter system or provided by a web service system, the historical data comprising timings of an electric current used during previous power ups of the functional modules of printers in the print fleet system and physical data measured during previous power ups of the functional modules of printers in the print fleet system.
A tyre comprising at least one carcass-type reinforcement structure, formed of reinforcement elements, anchored on either side of the tyre to a bead whose base is intended to be mounted on a rim seat, each bead being extended radially towards the outside by a sidewall, the sidewalls meeting up radially towards the outside with a tread, and comprising under the tread a crown reinforcement structure comprising a layer of circumferential reinforcement elements extending in the sidewalls beyond the points of tangency (A, B) of the curvilinear abscissa of the carcass-type reinforcement structure with perpendiculars (100, 101) to the axis of rotation, such that, in accordance with the profile of the tyre in a radial plane, said layer of circumferential elements is at least in part radially to the inside of the part of at least one carcass-type reinforcement structure radially to the outside of the two points of tangency (A, B) of the curvilinear abscissa of the carcass-type reinforcement structure and such that, in accordance with the profile of the tyre in a radial plane, the part (14, 15) of the layer of circumferential elements, radially to the inside of the two points of tangency of the curvilinear abscissa of the carcass-type reinforcement structure with perpendiculars to the axis of rotation is radially to the inside of the carcass-type reinforcement structure, radially to the inside of the two points of tangency of the curvilinear abscissa of the carcass-type reinforcement structure with perpendiculars to the axis of rotation with perpendiculars to the axis of rotation, characterised in that said circumferential reinforcement elements are distributed in the transverse direction with a variable pitch.
A medical image processing device (100, 200) comprising: a treatment plan acquirer configured to acquire treatment plan information determined in a planning stage of radiation treatment to be performed on a patient; a region-of-interest acquirer configured to acquire a region of interest when radiation treatment is performed on the patient on the basis of the treatment plan information output from the treatment plan acquirer, the region of interest being a partial region within a body of the patient; a degree-of-influence calculator configured to calculate a degree of influence representing a level of an influence of a treatment beam to be radiated on the region of interest up to a range until radiation with which the patient is irradiated reaches a target portion to be treated within the body of the patient; and a display controller (105, 205) configured to generate a display image in which information regarding the degree of influence is superimposed on a current fluoroscopic image of the patient and cause a display to display the display image. a treatment plan acquirer configured to acquire treatment plan information determined in a planning stage of radiation treatment to be performed on a patient; a region-of-interest acquirer configured to acquire a region of interest when radiation treatment is performed on the patient on the basis of the treatment plan information output from the treatment plan acquirer, the region of interest being a partial region within a body of the patient; a degree-of-influence calculator configured to calculate a degree of influence representing a level of an influence of a treatment beam to be radiated on the region of interest up to a range until radiation with which the patient is irradiated reaches a target portion to be treated within the body of the patient; and a display controller (105, 205) configured to generate a display image in which information regarding the degree of influence is superimposed on a current fluoroscopic image of the patient and cause a display to display the display image.
A laser seam stepper operable to join two or more overlaid metal pieces, comprising: an elongated support column extending along a longitudinal axis (B-B); an optical head axially displaceable along the support column and provided with optics which are configured to focus a laser beam along a path through a protective window of the optical head on a welding zone; and a first arm mounted to the support column along the path downstream from the protective window and coupled to the optical head so as to axially move between a home position and a welding position in which the first arm presses against one of the metal pieces in the welding position, the first arm being configured to enclose the welding zone so as to prevent laser emission from escaping outside the welding zone, the first arm being structured with an inner peripheral surface which defines an elongated tunnel configured with open upstream and downstream ends, the tunnel being configured to be axially traversed by: the laser beam, a first axially flowing stream of pressurized gaseous medium, and a second axially flowing stream of gaseous medium at a second pressure lower than that of the first stream; and a first vacuum source in fluid communication with the downstream end of the tunnel and operable to extract the first and second streams from the tunnel upon generating a pressure gradient between the upstream and downstream ends of the tunnel so that the welding debris are evacuated from the tunnel through the downstream end of the tunnel with the first and second streams, the second pressure being under the atmospheric pressure to prevent formation of air vortexes, wherein the first and second axially flowing streams substantially minimize contact between the protective window and welding debris flowing within the tunnel, wherein a volume of the second stream substantially exceeding a volume of the first stream within the tunnel, wherein the second stream having a slow speed and wherein the first and the second streams are axially unidirectional. an elongated support column extending along a longitudinal axis (B-B); an optical head axially displaceable along the support column and provided with optics which are configured to focus a laser beam along a path through a protective window of the optical head on a welding zone; and a first arm mounted to the support column along the path downstream from the protective window and coupled to the optical head so as to axially move between a home position and a welding position in which the first arm presses against one of the metal pieces in the welding position, the first arm being configured to enclose the welding zone so as to prevent laser emission from escaping outside the welding zone, the laser beam, a first axially flowing stream of pressurized gaseous medium, and a second axially flowing stream of gaseous medium at a second pressure lower than that of the first stream; and
A nipple for spokes of spoked wheels including a rod with an axial development, a threaded hole which is formed axially in the rod, the thread of the hole defining a root diameter and a crest diameter (d), a head which is widened with respect to the rod and a deformable insert which is inserted in a seat which is axially aligned with the hole, the insert, at least when it is inserted in the seat, having a passage for a threaded spoke end, the internal diameter of which is less than the root diameter of the thread of the hole so as to interfere with the thread of the spoke when it is screwed into the threaded hole, wherein the seat is formed in an intermediate axial position of the hole, characterized in that the insert is radially contractile and has a discontinuous mantle, wherein the insert is made radially contractile by the discontinuous mantle.
A method of controlling wireless transmissions in a wireless communication system based on a Wireless Local Area Network technology according to the IEEE 802.11 standards family, the method comprising: a wireless device (11; 900; 1200) configuring a carrier for communication with a serving access point (10; 1100; 1300); the wireless device (11; 900; 1200) maintaining an intra-Basic Service Set Network Allocation Vector, intra-BSS NAV, indicating that the carrier is to be regarded as occupied as long as the intra-BSS NAV is not expired; the wireless device (11; 900; 1200) receiving one or more wireless transmissions on the carrier, the one or more wireless transmissions each including: - a Service Set Identifier, SSID, commonly assigned to multiple access points (10; 1100; 1300) which cooperate by sharing a transmission opportunity, - a duration field for indicating a duration for which the carrier is expected to be occupied; in response to the SSID matching an SSID of the serving access point (10; 1100; 1300), the wireless device (11; 900; 1200) updating the intra-BSS NAV according to the indicated duration; and based on the intra-BSS NAV, the wireless device (11; 900; 1200) controlling one or more uplink wireless transmissions from the wireless device (11; 900; 1200). a wireless device (11; 900; 1200) configuring a carrier for communication with a serving access point (10; 1100; 1300); the wireless device (11; 900; 1200) maintaining an intra-Basic Service Set Network Allocation Vector, intra-BSS NAV, indicating that the carrier is to be regarded as occupied as long as the intra-BSS NAV is not expired; the wireless device (11; 900; 1200) receiving one or more wireless transmissions on the carrier, the one or more wireless transmissions each including: - a Service Set Identifier, SSID, commonly assigned to multiple access points (10; 1100; 1300) which cooperate by sharing a transmission opportunity, - a duration field for indicating a duration for which the carrier is expected to be occupied; - a Service Set Identifier, SSID, commonly assigned to multiple access points (10; 1100; 1300) which cooperate by sharing a transmission opportunity, - a duration field for indicating a duration for which the carrier is expected to be occupied; in response to the SSID matching an SSID of the serving access point (10; 1100; 1300), the wireless device (11; 900; 1200) updating the intra-BSS NAV according to the indicated duration; and based on the intra-BSS NAV, the wireless device (11; 900; 1200) controlling one or more uplink wireless transmissions from the wireless device (11; 900; 1200).