mhurhangee/ep-ind-claims huggingface dataset:
Papillary print sensor (100; 300; 400; 500; 600; 700; 700') comprising in superposition, a contact surface to which the print to be imaged is intended to be applied, illuminating means and an array optical sensor (120; 320), the array optical sensor (120; 320) comprising a plurality of photodetectors arranged in rows and columns, with the extent of the lines and the extent of the columns defining respectively a width and a length of a detecting surface of the array optical sensor (120, 320), with illuminating means arranged between said contact surface and the detecting surface (125; 425) of the array optical sensor, and consist of a plurality of organic light-emitting diodes (101; 401A, 401B; 701), referred to as OLEDs, each OLED extending uninterruptedly over more than a third of the width of said detecting surface, and the OLEDs extending together according to one or two series of patterns that are parallel to one another and distributed over the length of the detecting surface, with the OLEDs arranged between the array optical sensor (120, 320) and the contact surface, characterized in that a distance between the array optical sensor (120; 320) and the contact surface is between 1 μm and 20 μm, with the OLEDs and the array optical sensor (120, 320) integrated on the same substrate, and with the contact surface which belongs to the top surface of a thin protection layer covering the OLEDs or to a top electrode covering the OLEDs.
A method of automated selection of physical cell identity for a first cell comprising sending a request for information to at least one other cell in the vicinity of the first cell requesting data relating to the physical cell identity of said at least one other cell, characterized by the steps of: - receiving (403, 405) information relating to the physical cell identity of said at least one other cell together with a parameter indicating the visibility of the at least one other cell having said corresponding physical cell identity to the first cell, and - automatically selecting physical cell identity for the first cell based on the received information. - receiving (403, 405) information relating to the physical cell identity of said at least one other cell together with a parameter indicating the visibility of the at least one other cell having said corresponding physical cell identity to the first cell, and - automatically selecting physical cell identity for the first cell based on the received information.
A wireless gateway system (2, 3) comprising: a gateway apparatus having a gateway function and comprising an antenna configured to wirelessly communicate with a wireless field device; and a power supply apparatus separated from the gateway apparatus, wherein the power supply apparatus is configured to convert a voltage from an external power supply to a predetermined internal voltage, to supply the internal voltage to the gateway apparatus, and to relay a wired signal in conformance with a first wired communication protocol between an external controller and the gateway apparatus, and the gateway apparatus is configured to operate using the internal voltage supplied from the power supply apparatus, to convert a wireless signal in conformance with a wireless communication protocol received from the wireless field device to a wired signal in conformance with the first wired communication protocol, and to transmit the converted wired signal to the power supply apparatus, and the power supply apparatus comprises: a signal converter configured to convert the wired signal received from the gateway apparatus to a wired signal in conformance with a second wired communication protocol different from the first wired communication protocol and to relay the converted wired signal to the external controller. a gateway apparatus having a gateway function and comprising an antenna configured to wirelessly communicate with a wireless field device; and a power supply apparatus separated from the gateway apparatus, wherein the power supply apparatus is configured to convert a voltage from an external power supply to a predetermined internal voltage, to supply the internal voltage to the gateway apparatus, and to relay a wired signal in conformance with a first wired communication protocol between an external controller and the gateway apparatus, and the gateway apparatus is configured to operate using the internal voltage supplied from the power supply apparatus, to convert a wireless signal in conformance with a wireless communication protocol received from the wireless field device to a wired signal in conformance with the first wired communication protocol, and to transmit the converted wired signal to the power supply apparatus, and the power supply apparatus comprises: a signal converter configured to convert the wired signal received from the gateway apparatus to a wired signal in conformance with a second wired communication protocol different from the first wired communication protocol and to relay the converted wired signal to the external controller.
A system (200; 400; 700; 800) for performing cytometry, the system comprising: a light source (201; 401); a lens (203; 701) that focuses light from the light source (201; 401) onto a spot in a scanning location; a transport mechanism that causes relative motion between a cell in the scanning location and the spot; a sensor (207; 407; 708, 709) that indicates the intensity of light emanating from the cell as a result of illumination by the light source (201; 401), wherein the lens (203; 701) gathers light emanating from the cell for direction to the sensor (207; 407; 708, 709)_; and a processing unit that repeatedly takes readings of the light intensity indication and characterizes the light intensity along a substantially linear path across the cell. a light source (201; 401); a lens (203; 701) that focuses light from the light source (201; 401) onto a spot in a scanning location; a transport mechanism that causes relative motion between a cell in the scanning location and the spot; a sensor (207; 407; 708, 709) that indicates the intensity of light emanating from the cell as a result of illumination by the light source (201; 401), wherein the lens (203; 701) gathers light emanating from the cell for direction to the sensor (207; 407; 708, 709)_; and a processing unit that repeatedly takes readings of the light intensity indication and characterizes the light intensity along a substantially linear path across the cell.
A method for wireless communication in a wireless communications system, comprising: transmitting (905, 1005) a request to send, RTS, message with a first transmit power to a receiving device over a sidelink connection with the receiving device; receiving a clear to send, CTS, message from the receiving device based at least in part on transmitting the RTS message, wherein the CTS message comprises an indication of a priority of a data transmission; and determining to refrain (910, 1015) from using the first transmit power for a data transmission; identifying a second transmit power, which is different from the first transmit power, for the data transmission based at least in part on the received the CTS message comprising the indication of a priority of a data transmission; and transmitting (920, 1025) the data transmission with the second transmit power to the receiving device over the sidelink connection with the receiving device. transmitting (905, 1005) a request to send, RTS, message with a first transmit power to a receiving device over a sidelink connection with the receiving device; receiving a clear to send, CTS, message from the receiving device based at least in part on transmitting the RTS message, wherein the CTS message comprises an indication of a priority of a data transmission; and determining to refrain (910, 1015) from using the first transmit power for a data transmission; identifying a second transmit power, which is different from the first transmit power, for the data transmission based at least in part on the received the CTS message comprising the indication of a priority of a data transmission; and transmitting (920, 1025) the data transmission with the second transmit power to the receiving device over the sidelink connection with the receiving device.
A Registered State Change Notification, RSCN, method, applied to an Ethernet Node, ENode, device, comprising: receiving a first RSCN message; and distributing the first RSCN message to a corresponding Virtual Node Port, VN_Port, when it is determined that a destination Media Access Control, MAC, contained in the RSCN message is an ENode MAC; further comprising: before receiving the first RSCN message, sending a first State Change Registration, SCR, request message, a source MAC contained in the first SCR request message being the ENode MAC; and if a response message in which the destination MAC is the ENode MAC is received within a preset time, determining that a centralized notification capability negotiation between the ENode device and a Fibre Channel Over Erthernet, FCoE, Forwarder, FCF, succeeds and, as a result thereof, receives the first RSCN message; otherwise when failing to receive the response message in which the destination MAC is the ENode MAC within the preset time or when receiving a centralized notification capability negotiation failure message, sending a second SCR request message, a source MAC contained in the second SCR request message being an VN_Port MAC. receiving a first RSCN message; and distributing the first RSCN message to a corresponding Virtual Node Port, VN_Port, when it is determined that a destination Media Access Control, MAC, contained in the RSCN message is an ENode MAC; further comprising: before receiving the first RSCN message, sending a first State Change Registration, SCR, request message, a source MAC contained in the first SCR request message being the ENode MAC; and if a response message in which the destination MAC is the ENode MAC is received within a preset time, determining that a centralized notification capability negotiation between the ENode device and a Fibre Channel Over Erthernet, FCoE, Forwarder, FCF, succeeds and, as a result thereof, receives the first RSCN message; otherwise when failing to receive the response message in which the destination MAC is the ENode MAC within the preset time or when receiving a centralized notification capability negotiation failure message, sending a second SCR request message, a source MAC contained in the second SCR request message being an VN_Port MAC.
Robotised installation for the guided and controlled positioning and movement of a transcranial magnetic stimulation probe, at or around the head of a patient, wherein said installation essentially comprises a support structure on which are mounted the constituent elements of a robotic device forming a serial kinematic chain and carrying the aforementioned probe at its free and position-controlled end, an adjustable device for supporting and holding the patient, essentially in the seated position, forming part of or being connected to said support structure, said robotic device comprising two (7, 7') kinematic sub-assemblies that are mutually connected in series, namely on the one hand a first sub-assembly in the form of a rotary articulation mechanism (8, 8', 8"), integral with the support structure by a first articulation and corresponding to a serial-type, spherical kinematic arrangement with three degrees of freedom, whereby the articulation elements (8, 8', 8") are all located outside of the space that can accommodate the patient and whereby their axes of rotation (axis 1, axis 2, and axis 3) are concurrent at a focal point that corresponds approximately to the hypothetical centre of the head of the patient in an intervention position, and, on the other hand, a second sub-assembly in the form of a mechanism with linear translation along an axis (axis 4) that passes through the aforementioned focal point and that is integral with the moving part of the third articulation (8") in series of the first sub-assembly, the installation characterised in that the robotic device also comprises a third sub-assembly (7") in the form of a second rotary articulation mechanism in series (11, 11', 11") forming a spherical cuff with three degrees of freedom, said third sub-assembly (7") being connected to the mobile part of the second subassembly and the robotic device being thus redundant at seven degrees of freedom.
A composition comprising an aqueous dispersion of polymer particles comprising, based on the weight of the polymer particles, from 0.02 to 4 weight percent structural units of a carboxylic acid monomer, a sulfur acid monomer, or a phosphorus acid monomer or a salt thereof; and from 0.05 to 3 weight percent structural units of an arginine functionalized monomer characterized by the following structure: wherein X is NH, NHCH 2 CH 2 O, NHCH 2 CH 2 NR or NHCH 2 CH CH 2 O; and each R is independently H or CH 3.
A chassis for packaging electronics to be populated on an information technology rack, the chassis comprising: a liquid distributor having first blind mate connectors facing a first direction and second blind mate connectors, facing away from the first direction, wherein the first blind mate connectors are to be coupled to a rack manifold of an electronic rack to receive cooling fluid, to distribute the cooling fluid to an electronic device via the second blind mate connectors, and to return the cooling fluid carrying heat generated from the electronic device back to the rack manifold; a sliding channel of the chassis that the liquid distributor is mounted to, such that the liquid distributor is slidable back and forth along the first direction; and a device frame forming a wall or surface perpendicular to a floor of the chassis and having a mounting slot for receiving the electronic device deposited thereon, wherein the mounting slot is arranged between the device frame and the liquid distributor, such that the second blind mate connectors slide towards the mounting slot when a first force is applied to the first blind mate connectors against the first direction. a liquid distributor having first blind mate connectors facing a first direction and second blind mate connectors, facing away from the first direction, wherein the first blind mate connectors are to be coupled to a rack manifold of an electronic rack to receive cooling fluid, to distribute the cooling fluid to an electronic device via the second blind mate connectors, and to return the cooling fluid carrying heat generated from the electronic device back to the rack manifold; a sliding channel of the chassis that the liquid distributor is mounted to, such that the liquid distributor is slidable back and forth along the first direction; and a device frame forming a wall or surface perpendicular to a floor of the chassis and having a mounting slot for receiving the electronic device deposited thereon, wherein the mounting slot is arranged between the device frame and the liquid distributor, such that the second blind mate connectors slide towards the mounting slot when a first force is applied to the first blind mate connectors against the first direction.
High-speed wire electrochemical-discharge cutting method (HS-WECDM), in which a work piece is processed by means of a wire electrode, in which consecutive negative polarity pulses are applied at said wire electrode, the negative polarity pulses having open circuit voltage U o2, thereby at least partially developing discrete electrical discharges, characterized in that the method further includes, applying positive polarity pulses at the wire electrode between the negative pulses, the positive polarity pulses having a positive polarity open circuit voltage U o1, and that an ignition occurring with each positive polarity pulse is immediately detected, and that the positive polarity pulses are immediately interrupted.
A golf club head comprising: a face portion including a ball striking surface; and a plate member connected to a back surface located on a back side of the face portion, a metal part of metal material being arranged on at least any one of a toe side and a heel side of the face portion and being arranged so as not to planarly overlap a striking point of the face portion, and the metal part comprising a first metal portion provided on the toe portion side, a second metal portion being provided on the heel portion side connected to each other with third metal portion therebetween, characterized in that the plate member includes a resin plate and the metal material of which at least a part of is nipped by the resin plate and buried into it, and wherein the resin plate is made of urethane resin, wherein the first metal portion and the second metal portion are at least partially exposed from the resin plate. a face portion including a ball striking surface; and a plate member connected to a back surface located on a back side of the face portion, a metal part of metal material being arranged on at least any one of a toe side and a heel side of the face portion and being arranged so as not to planarly overlap a striking point of the face portion, and the metal part comprising a first metal portion provided on the toe portion side, a second metal portion being provided on the heel portion side connected to each other with third metal portion therebetween,
Method for printing a three-dimensional light-guiding structure by depositing a plurality of droplets of printing material along a printing direction onto a substrate, wherein the droplets of printing material are deposited such that the droplets form a layer of printing material on the substrate, wherein the droplets of printing material are deposited by at least one nozzle onto the substrate and/or onto the layer of printing material, wherein the at least one nozzle is adjusted such that the distance between the at least one nozzle and -- the layer of the printing material or -- the substrate is mainly constant along the printing direction while depositing the printing material onto the substrate, wherein the printing head comprises a plurality of nozzles arranged along the printing direction, wherein the plurality of nozzles are configured such that the droplets of printing material are deposited onto the substrate, wherein the plurality of nozzles are moved during the movement of the printing head, wherein the printing head is rotatable about an axis perpendicular to the printing direction and parallel to a main plane of the substrate, characterized in that the printing head is rotated such that the distance between each nozzle and the layer of the printing material or the substrate corresponds to each other while depositing the printing material. -- the layer of the printing material or -- the substrate is mainly constant along the printing direction while depositing the printing material onto the substrate, wherein the printing head comprises a plurality of nozzles arranged along the printing direction, wherein the plurality of nozzles are configured such that the droplets of printing material are deposited onto the substrate, wherein the plurality of nozzles are moved during the movement of the printing head, wherein the printing head is rotatable about an axis perpendicular to the printing direction and parallel to a main plane of the substrate, characterized in that the printing head is rotated such that the distance between each nozzle and the layer of the printing material or the substrate corresponds to each other while depositing the printing material.
A variable vane assembly comprising: an upstream vane stage including an airfoil coupled with an upstream vane stem and an upstream vane arm and configured to drive said upstream vane stem to rotate, with said upstream vane stem supported in an upstream housing boss, and a downstream vane stage including an airfoil coupled with a downstream vane stem and a downstream vane arm and configured to drive said downstream vane stem to rotate, with said downstream vane stem supported in a downstream housing boss; characterised by a first clearance defined between a radially inner end of said upstream vane arm and a radially outer end of said upstream housing boss, and a second clearance defined between a radially inner end of said downstream vane arm and a radially outer end of said downstream housing boss, with a clearance ratio of said second clearance to said first clearance being greater than or equal to 10. an upstream vane stage including an airfoil coupled with an upstream vane stem and an upstream vane arm and configured to drive said upstream vane stem to rotate, with said upstream vane stem supported in an upstream housing boss, and a downstream vane stage including an airfoil coupled with a downstream vane stem and a downstream vane arm and configured to drive said downstream vane stem to rotate, with said downstream vane stem supported in a downstream housing boss; characterised by a first clearance defined between a radially inner end of said upstream vane arm and a radially outer end of said upstream housing boss, and a second clearance defined between a radially inner end of said downstream vane arm and a radially outer end of said downstream housing boss, with a clearance ratio of said second clearance to said first clearance being greater than or equal to 10.
An apparatus comprising: a cage configured to rotate around a cage axis, wherein the rotation of the cage around the cage axis induces a lift of the apparatus above the ground characterized in that the cage includes a plurality of turbines (162, 164, 166), wherein each turbine (162, 164, 166) is configured to rotate around a turbine axis different from the cage axis, and wherein each turbine (162, 164, 166) comprises a turbine blade having an adaptable shape and comprising: a frame; a first connection (526, 522) between a first side of an end of the frame and a center region of the frame; a second connection (528, 524) between a second side of the first end of the frame and the center region of the frame; a turbine controller, wherein the turbine controller is configured to at least maintain, shorten, or lengthen at least the first connection (526, 522) or the second connection (528, 524). a frame; a first connection (526, 522) between a first side of an end of the frame and a center region of the frame; a second connection (528, 524) between a second side of the first end of the frame and the center region of the frame; a turbine controller, wherein the turbine controller is configured to at least maintain, shorten, or lengthen at least the first connection (526, 522) or the second connection (528, 524).