mhurhangee/ep-ind-claims huggingface dataset:
A first device, "STA D", comprising memory and processing circuitry configured to: identify a first directional request to send, "RTS", transmission received from a second device, "STAA"; set a network allocation vector "NAV" for the first device based at least in part on the first directional RTS transmission; identify, during a time associated with the NAV, a second directional RTS received from a third device, "STA C", wherein the second directional RTS indicates a service period associated with the third device, the service period indicating an expected duration of subsequent exchanges between the first device and the third device; and cause to send a first directional response to the third device during the service period and before a time associated with the NAV has expired; wherein the first directional response is a denial-to-send, "DTS", for indicating that the NAV has been set for the first device and comprising an indication of the time remaining in the NAV; identify a third directional RTS received from the third device, wherein the third directional RTS is received during the service period and after the indicated time remaining in the NAV has expired; and cause to send a second directional response to the third device during the service period after receiving the third directional RTS, wherein the third directional response is a clear-to- send, "CTS". identify a first directional request to send, "RTS", transmission received from a second device, "STAA"; set a network allocation vector "NAV" for the first device based at least in part on the first directional RTS transmission; identify, during a time associated with the NAV, a second directional RTS received from a third device, "STA C", wherein the second directional RTS indicates a service period associated with the third device, the service period indicating an expected duration of subsequent exchanges between the first device and the third device; and cause to send a first directional response to the third device during the service period and before a time associated with the NAV has expired; wherein the first directional response is a denial-to-send, "DTS", for indicating that the NAV has been set for the first device and comprising an indication of the time remaining in the NAV; identify a third directional RTS received from the third device, wherein the third directional RTS is received during the service period and after the indicated time remaining in the NAV has expired; and cause to send a second directional response to the third device during the service period after receiving the third directional RTS, wherein the third directional response is a clear-to- send, "CTS".
A capacitive fingerprint identification apparatus, configured to be provided on an arc-shaped surface of an electronic device, comprising: a capacitive fingerprint identification package structure; an arc surface structure, comprising a first surface and a second surface, wherein the first surface of the arc surface structure is a plane, the second surface of the arc surface structure is an arc surface, and the first surface of the arc surface structure is connected to a first surface of the capacitive fingerprint identification package structure, and the first surface of the capacitive fingerprint identification package structure is a surface facing the outside of the electronic device; characterized in that a material of the arc surface structure is a high temperature resistant ultraviolet, UV, light glue, and a dielectric constant of the arc surface structure is greater than 3.4. a capacitive fingerprint identification package structure; an arc surface structure, comprising a first surface and a second surface, wherein the first surface of the arc surface structure is a plane, the second surface of the arc surface structure is an arc surface, and the first surface of the arc surface structure is connected to a first surface of the capacitive fingerprint identification package structure, and the first surface of the capacitive fingerprint identification package structure is a surface facing the outside of the electronic device; characterized in that a material of the arc surface structure is a high temperature resistant ultraviolet, UV, light glue, and a dielectric constant of the arc surface structure is greater than 3.4.
A centrifugal pump (11, 111) comprising a motor casing (10, 110) containing a motor (12, 112) associated with a hydraulic part (13, 113), provided with at least one impeller, by means of a rotation transmission shaft (15, 115), and said motor casing (10, 110) being provided with at least one surface (17, 117) that is struck by pumping liquid that arrives from said hydraulic part (13, 113), the pump being characterized in that said motor casing (10, 110) is made of aluminum, and said surface (17, 117) struck by pumping liquid is provided by deposition of an oxidation-resistant coating (18, 118), said surface (17, 117) provided by deposition of said oxidation-resistant coating (18,118) being arranged, on the hydraulic side, at the interface (19, 119) between said hydraulic part (13, 113) and said motor (12, 112), said coating (18, 118) being provided by: a Polytetrafluoroethylene (PTFE) coating; deposition of ceramic material; or overmolding plastic material. a Polytetrafluoroethylene (PTFE) coating; deposition of ceramic material; or overmolding plastic material.
A magnetic detection module (90, 901, 902, 903, 904, 905) that is provided so as to be selectively mountable in any of a first and a second housing (40, 401, 402), the first housing having a first specification, the second housing having a second specification, the first and second housings having different shapes or sizes of mounting portions, and detects magnetic flux generated in the housing (40, 401, 402), comprising: one or more magnetic sensors (71, 72) configured to detect magnetic flux; a case (501, 504) in which the magnetic sensor (71, 72) is housed; and a cap (801, 803, 805) that is attachable to an end of the case (501, 504) and has a sealing member, wherein the magnetic detection module (90, 901, 902, 903, 904, 905) configured to be attachable to the housing of the first specification with the cap (801, 803, 805) not attached to the case (501, 504), and to be attachable to the housing of the second specification through the sealing member with the cap (801, 803, 805) attached to the case (501, 504), the end of the case (501, forming an insertion portion for insertion into a mounting hole of the first housing in case of mounting to the first housing, and for insertion into a receiving hole of the cap (801, 803, 805) in case of mounting to the second housing, the cap (801, 803, 805) being configured to be inserted into a mounting hole of the second housing, and the case (501, 504) has a connector portion for transmitting a signal to an external processing unit and flanges formed with fixing holes for mounting on the first and second housings (401, 402), respectively. one or more magnetic sensors (71, 72) configured to detect magnetic flux; a case (501, 504) in which the magnetic sensor (71, 72) is housed; and a cap (801, 803, 805) that is attachable to an end of the case (501, 504) and has a sealing member, wherein the magnetic detection module (90, 901, 902, 903, 904, 905) configured to be attachable to the housing of the first specification with the cap (801, 803, 805) not attached to the case (501, 504), and to be attachable to the housing of the second specification through the sealing member with the cap (801, 803, 805) attached to the case (501, 504), the end of the case (501, forming an insertion portion for insertion into a mounting hole of the first housing in case of mounting to the first housing, and for insertion into a receiving hole of the cap (801, 803, 805) in case of mounting to the second housing, the cap (801, 803, 805) being configured to be inserted into a mounting hole of the second housing, and the case (501, 504) has a connector portion for transmitting a signal to an external processing unit and flanges formed with fixing holes for mounting on the first and second housings (401, 402), respectively.
Combine harvester with a straw discharge hood, arranged at the rear end of a combine harvester housing, in which an ejection channel via which threshed straw is ejected from the combine harvester and an air duct end, wherein an air intake opening of the air duct is positioned on the outside of the combine harvester housing in order to suck in air which is substantially free of threshed particles, characterised in that an outlet opening of the air duct has regions extending on the straw discharge hood on each side of an outlet of the ejection channel in order to create an air curtain on each side of the discharged straw.
A scintillator array, comprising: a plurality of scintillator pixels arranged in rows and columns; and a reflector, wherein the reflector is disposed between the scintillator pixels in a zigzag pattern, wherein each of the scintillator pixels along a perimeter of the array has an outer side surface, and wherein the outer side surface of every other scintillator pixel along the perimeter of the array is covered by the reflector. a plurality of scintillator pixels arranged in rows and columns; and a reflector, wherein the reflector is disposed between the scintillator pixels in a zigzag pattern, wherein each of the scintillator pixels along a perimeter of the array has an outer side surface, and wherein the outer side surface of every other scintillator pixel along the perimeter of the array is covered by the reflector.
A microscope system comprising: an observation optical system including an objective lens (126, 148); an XY stage including an XY plane along an X-axis direction and a Y-axis direction and capable of moving in the X-axis direction and the Y-axis direction, wherein XY stage includes a first mark arranged on the XY stage; a slide capable of being placed on the XY stage and including a second mark (704 - 707) arranged on the slide; first change means configured to change a slant of the XY stage with respect to an optical axis direction of the objective lens (126, 148); second change means configured to change a slant of the slide when being placed on the XY stage with respect to the XY plane of the XY stage; and control means configured to perform first control of changing the slant of the XY stage by the first change means based on a focus detection of the first mark arranged on the XY stage at a position observable by the observation optical system and second control of changing the slant of the slide with respect to the XY stage by the second change means based on a focus detection of the second mark (704 - 707) arranged on the slide. an observation optical system including an objective lens (126, 148); an XY stage including an XY plane along an X-axis direction and a Y-axis direction and capable of moving in the X-axis direction and the Y-axis direction, wherein XY stage includes a first mark arranged on the XY stage; a slide capable of being placed on the XY stage and including a second mark (704 - 707) arranged on the slide; first change means configured to change a slant of the XY stage with respect to an optical axis direction of the objective lens (126, 148); second change means configured to change a slant of the slide when being placed on the XY stage with respect to the XY plane of the XY stage; and control means configured to perform first control of changing the slant of the XY stage by the first change means based on a focus detection of the first mark arranged on the XY stage at a position observable by the observation optical system and second control of changing the slant of the slide with respect to the XY stage by the second change means based on a focus detection of the second mark (704 - 707) arranged on the slide.
Method for operation of a converter circuit, with the converter circuit having a converter unit with a multiplicity of controllable power semiconductor switches, and being connected via a transformer to a three-phase electrical AC voltage power supply system, in which the controllable power semiconductor switches are controlled by means of a control signal (S A) which is formed from a regulating signal (S R), characterized in that a filtered power supply system current (i GTP) is formed by filtering a power supply system current (i G) using a low-pass filter characteristic, in that a filtered transformer inductance voltage (u LTTP) is formed by filtering a transformer inductance voltage (u LT), which is formed from the power supply system current (i G), using a low-pass filter characteristic, in that a filtered power supply system voltage (u GTP) is formed by filtering a power supply system voltage (u G) using a low-pass filter characteristic, and in that the regulating signal (S R) is formed by addition of a regulator voltage (u R), the filtered transformer inductance voltage (u LTTP) and the filtered power supply system voltage (u GTP), with the regulator voltage (u R) being formed by regulating the filtered power supply system current (i GTP) at a power supply system current nominal value (i Gref).
A method for wireless communications, comprising: identifying an opportunity for a first operator to perform a clear channel assessment, CCA, for a shared spectrum, the opportunity based on a priority of the first operator with respect to at least one other operator associated with the shared spectrum; and performing the CCA for the shared spectrum during the identified opportunity to determine whether the shared spectrum is available for a transmission during a transmission interval. identifying an opportunity for a first operator to perform a clear channel assessment, CCA, for a shared spectrum, the opportunity based on a priority of the first operator with respect to at least one other operator associated with the shared spectrum; and performing the CCA for the shared spectrum during the identified opportunity to determine whether the shared spectrum is available for a transmission during a transmission interval.
A method of monitoring and controlling an operation of a meter electrically connected between a power source and a load through a meter socket, comprising: detecting at least one potential failure condition of an electrical connection between the meter and the meter socket; characterized in that it further comprises: determining, based on the detected at least one potential failure condition, a correction time indicating an amount of time before a predicted failure of the electrical connection; determining whether the meter is in an imminent failure condition based on the correction time, by comparing the correction time to a minimum correction time, and the detected at least one potential failure condition; and disconnecting power to the load with the meter when it is determined the meter is in the imminent failure condition. determining, based on the detected at least one potential failure condition, a correction time indicating an amount of time before a predicted failure of the electrical connection; determining whether the meter is in an imminent failure condition based on the correction time, by comparing the correction time to a minimum correction time, and the detected at least one potential failure condition; and disconnecting power to the load with the meter when it is determined the meter is in the imminent failure condition.
A method for producing a decorative surface having different gloss levels comprising the following steps: feeding of a workpiece (1.0), which is coated with at least a first lacquer layer (1.4) to a digital printing station; provision of digital control data for the digital printing station; digital spraying of droplets on partial areas of the first lacquer layer (1.4) on the workpiece (1.0) with an at least partially transparent lacquer in order to apply a second lacquer layer (1.5) on the first lacquer layer (1.4), wherein after curing the second lacquer layer (1.5) has a different gloss level than the first lacquer layer (1.4) characterized in that a liquid base layer (1.2) is applied to a surface of the workpiece (1.0) and a structure is introduced into the still liquid base layer (1.2) by droplets (1.3) which are sprayed under use of digital print heads, which structure is subsequently fixed, and the structured base layer is the first lacquer layer (1.4), or the first lacquer layer (1.4) is applied to the structured base layer. feeding of a workpiece (1.0), which is coated with at least a first lacquer layer (1.4) to a digital printing station; provision of digital control data for the digital printing station; digital spraying of droplets on partial areas of the first lacquer layer (1.4) on the workpiece (1.0) with an at least partially transparent lacquer in order to apply a second lacquer layer (1.5) on the first lacquer layer (1.4), wherein after curing the second lacquer layer (1.5) has a different gloss level than the first lacquer layer (1.4)
A method of recording data on a recording medium, comprising the steps of: recording data on the recording medium (S110,S310); producing recording-status data, representing occupied areas of a user data area of the recording medium, and recording the recording-status data in a temporary defect management area (TDMA) allocated in the recording medium (S130.S330); receiving a finalization command to preserve the data recording status of the recording medium (S150,S350); and recording predetermined data in an unoccupied area of the temporary defect management area (TDMA), in response to the finalization command, to prevent further data recording on the recording medium (S190,S390), wherein the unoccupied area is the entire remaining area in which data is not yet recorded, excluding an area in which data has been recorded, in the temporary defect management area, and wherein the unoccupied area is filled with the predetermined data by recording the predetermined data in the unoccupied area of the temporary defect management area. recording data on the recording medium (S110,S310); producing recording-status data, representing occupied areas of a user data area of the recording medium, and recording the recording-status data in a temporary defect management area (TDMA) allocated in the recording medium (S130.S330); receiving a finalization command to preserve the data recording status of the recording medium (S150,S350); and recording predetermined data in an unoccupied area of the temporary defect management area (TDMA), in response to the finalization command, to prevent further data recording on the recording medium (S190,S390), wherein the unoccupied area is the entire remaining area in which data is not yet recorded, excluding an area in which data has been recorded, in the temporary defect management area, and
Process for the manufacture of synthesis gas from biomass, wherein: a. the bio-mass is broken down into pyrolysis coke and pyrolysis gas inside at least one pyrolysis reactor, b. the pyrolysis coke is transferred into the fluidised bed of a synthesis gas reactor, c. the pyrolysis gas is used as the swirl-gas for the synthesis gas reactor, and the pyrolysis gas is fed into the fluidised bed of the synthesis gas reactor, d. before entering the fluidised bed of the synthesis gas reactor, the pyrolysis gas is heated, by means of a heater or the addition of oxygen, to a temperature between 850°C and 1600°C, e. the pyrolysis gas in the fluidised bed of the synthesis gas reactor is cooled down, by means of chemical quenchers, to between 700°C and 850°C, and f. the synthesis gas is produced by reacting of the pyrolysis gas and pyrolysis coke into the synthesis gas reactor. a. the bio-mass is broken down into pyrolysis coke and pyrolysis gas inside at least one pyrolysis reactor, b. the pyrolysis coke is transferred into the fluidised bed of a synthesis gas reactor, c. the pyrolysis gas is used as the swirl-gas for the synthesis gas reactor, and the pyrolysis gas is fed into the fluidised bed of the synthesis gas reactor, d. before entering the fluidised bed of the synthesis gas reactor, the pyrolysis gas is heated, by means of a heater or the addition of oxygen, to a temperature between 850°C and 1600°C, e. the pyrolysis gas in the fluidised bed of the synthesis gas reactor is cooled down, by means of chemical quenchers, to between 700°C and 850°C, and f. the synthesis gas is produced by reacting of the pyrolysis gas and pyrolysis coke into the synthesis gas reactor.
Hermetically sealed turbo expander system for use in organic rankine cycles, comprising a turbo expander, a rotatable rotor and a casing which is filled with an organic working medium in a gaseous condition, whereby the turbo expander is arranged around the rotor within the casing, at least two bearings for bearing the turbo expander around the rotor, with sealed openings in the casing for a first line and a second line to and from the turbo expander, whereby the at least two bearings are liquid lubricated bearings, with at least one sealed supply opening in the casing for guiding one or more supply lines to the at least two bearings and a feedback opening in the casing for guiding a feedback line to the organic rankine cycle characterized in that each liquid lubricated bearing comprises seals limiting a bearing-to-rotor gap of a liquid lubricated bearing, whereby each liquid lubricated bearing comprises an organic working fluid input line to be connected with a supply line and an organic working fluid output line, whereby the organic working fluid input line and the organic working fluid output line are each connected to the bearing-to-rotor gap, an whereby the organic working medium output lines each comprises a flow resistance.
A recombinant T cell comprising an expression construct comprising a nucleic acid molecule encoding a chimeric interleukin 6 receptor alpha (IL-6Rα) binding protein, wherein said binding protein comprises a heavy chain variable region comprising a CDR1, CDR2, and CDR3 having the amino acid sequence of SEQ ID NOs:5-7, respectively, attached by a heterologous linker to a light chain variable region comprising CDR4, CDR5, and CDR6 having the amino acid sequence of SEQ ID NOs:8-10, respectively, and wherein the T cell further expresses a chimeric antigen receptor.
A conducting path arrangement for a portable data carrier with a flat carrier and a conducting path structure with a layout, characterized in that the carrier has a non-conductive ferrite layer and the conducting path arrangement is formed in the ferrite layer by structural change of the layer material in accordance with the layout.
A device for producing parts intended for dental purposes, in particular rails worn in the mouth for tooth-bearing upper or lower jaws, by thermoforming, a model being inserted into the device, a thermoforming sheet being placed onto the model and being thermoformed into a rail by means of a vacuum generator, the device comprising a model plate, whereupon several model set-down areas are formed, each model set-down area comprising, on the bottom portion opposite to the area for arranging a model, a connection to the vacuum generator, above the model plate, a set-down area for a thermoforming sheet being disposed that covers all model set-down areas and that preferably is adjustable into a handling position spaced apart from the model set-down areas and into a working position, where it can be lowered onto the models located on the model set-down areas, and that is supported in an air-tight manner at least at the circumferential edge of the model plate, characterized by that the connection terminates in an open manner via connection channels or slots at the top portion of the respective model set-down area, and that the vacuum generator is connected to the connection channels or slots through tubes, all tubes having the same lengths and the same cross-sections or diameters.