mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving, at a station (14, 24, 34, 302, 304, 306, 700), a plurality of beacon data units transmitted by a network controller (12, 32, 34, 100, 308, 700) during a timeslot reserved for transmission of beacons within a beacon interval of a wireless communication protocol, each beacon data unit including data indicating the beacon data unit is for transmit beamforming training for the network controller, and an indication of a duration limit of an association beamforming training, A-BFT, timeslot within the beacon interval, the A-BFT timeslot used for beamforming training with unbeamformed stations and using said duration limit to go to sleep for stations not being involved in the A-BFT, and each beacon data unit having been transmitted by the network controller using a different steering vector; assessing, at the station, respective qualities of the beacon data units received during the timeslot reserved for transmission of beacons; selecting, at the station, one of the steering vectors based on the respective qualities of the beacon data units received during the timeslot reserved for transmission of beacons; and transmitting, by the station, to the network controller an indication of the one steering vector. receiving, at a station (14, 24, 34, 302, 304, 306, 700), a plurality of beacon data units transmitted by a network controller (12, 32, 34, 100, 308, 700) during a timeslot reserved for transmission of beacons within a beacon interval of a wireless communication protocol, each beacon data unit including data indicating the beacon data unit is for transmit beamforming training for the network controller, and an indication of a duration limit of an association beamforming training, A-BFT, timeslot within the beacon interval, the A-BFT timeslot used for beamforming training with unbeamformed stations and using said duration limit to go to sleep for stations not being involved in the A-BFT, and each beacon data unit having been transmitted by the network controller using a different steering vector; assessing, at the station, respective qualities of the beacon data units received during the timeslot reserved for transmission of beacons; selecting, at the station, one of the steering vectors based on the respective qualities of the beacon data units received during the timeslot reserved for transmission of beacons; and transmitting, by the station, to the network controller an indication of the one steering vector.
An external magnetic actuator (10, 210, 310) for actuating an implanted or implantable medical device that includes a rotatable internal magnet for driving translation between first and second components of the implanted or implantable medical device, the external magnetic actuator comprising: a permanent magnet having a first major surface, a second major surface opposite the first major surface, and a plurality of minor surfaces extending between and perpendicular to the first and second major surfaces, the first and second major surfaces each having an individual surface area, the plurality of minor surfaces each having an individual surface area, the individual surface area of the first and second major surfaces being greater than the individual surface area of each of the minor surfaces, the permanent magnet including a first pole on the first major surface, and a second pole on the second major surface; an actuator body including a housing having a first wall, a second wall opposite the first wall, a plurality of side walls extending between and perpendicular to the first and second walls, and a cavity for receiving the permanent magnet therein; a first handle coupled to a first side wall of the plurality of side walls; and a second handle coupled to a second side wall of the plurality of side walls, the second side wall being opposite to the first side wall. a permanent magnet having a first major surface, a second major surface opposite the first major surface, and a plurality of minor surfaces extending between and perpendicular to the first and second major surfaces, the first and second major surfaces each having an individual surface area, the plurality of minor surfaces each having an individual surface area, the individual surface area of the first and second major surfaces being greater than the individual surface area of each of the minor surfaces, the permanent magnet including a first pole on the first major surface, and a second pole on the second major surface; an actuator body including a housing having a first wall, a second wall opposite the first wall, a plurality of side walls extending between and perpendicular to the first and second walls, and a cavity for receiving the permanent magnet therein; a first handle coupled to a first side wall of the plurality of side walls; and a second handle coupled to a second side wall of the plurality of side walls, the second side wall being opposite to the first side wall.
Catalyst according to the general formula Q a [M b (VO 4) c] a-, wherein Q is a quaternary ammonium cation of the general formula R 1 R 2 R 3 R 4 N +, wherein each of R 1, R 2, R 3 and R 4 is independently of each other a saturated C 1 to C 20 alkyl radical or an aromatic C 5 or C 6 radical with the proviso that at least one of R 1, R 2, R 3 and R 4 is a saturated C 4 to C 20 alkyl group, M is at least one metal selected from the group consisting of Mg, Co, Cu, Fe, Ba and Zr, V denotes vanadium, O denotes oxygen, a is the integer 1 or 3, b is the integer 1 or 2, and c is the integer 1 or 2. Q is a quaternary ammonium cation of the general formula R 1 R 2 R 3 R 4 N +, wherein each of R 1, R 2, R 3 and R 4 is independently of each other a saturated C 1 to C 20 alkyl radical or an aromatic C 5 or C 6 radical with the proviso that at least one of R 1, R 2, R 3 and R 4 is a saturated C 4 to C 20 alkyl group, M is at least one metal selected from the group consisting of Mg, Co, Cu, Fe, Ba and Zr, V denotes vanadium, O denotes oxygen, a is the integer 1 or 3, b is the integer 1 or 2, and c is the integer 1 or 2.
Scaffolding anchoring device for anchoring a part of a scaffolding on a construction, comprising a single-piece base body tapering at least sectionally from a first boundary surface to a second boundary surface opposite to the first boundary surface, wherein the first boundary surface forms an abutment surface for the abutment of the base body on a wall of the construction, and a first connecting means, which is connected with the base body for the connection of the base body to the wall of the construction, and a second connecting means for the connection of the part of the scaffolding to the base body, wherein the first connecting means comprises a threaded element having a threaded portion, which can be screwed into a reception means provided on the construction-side, in particular a plug or similar, characterised in that the base body is manufactured from a plastic, in particular from a reinforced plastic, and that the threaded element is sectionally injection-moulded into the base body.
A polycarbonate resin composition comprising a polycarbonate resin, a hindered phenol-based compound and a phosphite-based compound, wherein the polycarbonate resin composition comprises the hindered phenol-based compound and the phosphite-based compound in a content range satisfying Formula 1 below and Formula 2 below based on 100 parts by weight of the polycarbonate resin: 0.6 ≤ y / x + y ≤ 0.9 0.05 ≤ x + y ≤ 0.5 wherein x is parts by weight of the hindered phenol-based compound and y is parts by weight of the phosphite-based compound, wherein the hindered phenol-based compound is one or more selected from pentaerythritol tetrakis[3-(3,5-di-t-butyl-4-hydroxyphenyl)propionate], and 1,3,5-trimethyl-2,4,6-tris(3,5-di-t-butyl-4-hydroxy benzyl)benzene, and wherein the phosphite-based compound is bis(2,4-dicumylphenyl)pentaerythritol diphosphite.
A method of encapsulating a substrate having at least the following layers: a Si-CMOS device layer, a layer of first semiconductor material different to silicon, and a layer of second semiconductor material, the first semiconductor material being a group III-V semiconductor material or a material formed from combining different group III-V semiconductor materials, the second semiconductor material includes silicon, the layer of first semiconductor material arranged intermediate the Si-CMOS device layer and the layer of second semiconductor material such that adjoining edges of the layer of first semiconductor material, the Si-CMOS device layer and the layer of second semiconductor material define a circumferential edge of the substrate, the method comprising: (i) circumferentially removing a portion of the circumferential edge, the portion removed comprising a portion of the Si-CMOS device layer, a portion of the layer of first semiconductor material and a portion of a section of the edge of the layer of second semiconductor material; and (ii) depositing a dielectric material on the substrate to replace the portion removed at step (i) for encapsulating at least the Si-CMOS device layer and the layer of first semiconductor material such that the layer of first semiconductor material is unexposed, wherein an adjoining section of the layer of second semiconductor material serves as a base to support the deposited dielectric material. (i) circumferentially removing a portion of the circumferential edge, the portion removed comprising a portion of the Si-CMOS device layer, a portion of the layer of first semiconductor material and a portion of a section of the edge of the layer of second semiconductor material; and (ii) depositing a dielectric material on the substrate to replace the portion removed at step (i) for encapsulating at least the Si-CMOS device layer and the layer of first semiconductor material such that the layer of first semiconductor material is unexposed, wherein an adjoining section of the layer of second semiconductor material serves as a base to support the deposited dielectric material.
Tool chucking device for a tool holder with a central adjusting bolt, which is axially displaceable by means of a setting device for setting a tool received in the tool holder, with an axial draw pin for actuating individual clamping elements within a tool holder mount of a spindle, wherein the draw pin includes a coupling device, by means of which the adjusting bolt can be coupled with the setting device free of axial play and can be uncoupled from the latter, and the coupling device comprises individual approximately finger-shaped clamping elements arranged at approximately the same spacings from one another in circumferential direction, characterised in that the clamping elements are held by one end at a setting element, which is axially displaceable within the draw pin, to be radially pivotably movable and by way of an axial relative displacement between the draw pin and the setting element by the adjusting bolt and on pivot actuation from outwardly in inward direction into a coupling setting engage, by approximately frusto-conical clamping surfaces, an associated frustoconical surface of the adjusting bolt and axially clamp together the adjusting bolt and the setting element.
An ink-jet printing method for printing images or characters on a recording medium using a water-based ink for ink-jet printing, in which the water-based ink comprises at least one acetylene glycol selected from the group consisting of 2,4,7, 9-tetramethyl-5-decyne-4,7-diol, 3,6-dimethyl-4-octyne-3,6-diol and 2,5-dimethyl-3-hexyne-2,5-diol, a nonionic surfactant, a pigment and water; the nonionic surfactant is an alkyleneoxide adduct of an alcohol having not less than 6 and not more than 30 carbon atoms; a content of the component in the water-based ink is not less than 1.0% by mass and not more than 3.0% by mass, and a mass ratio of the component to the component [ /] is not less than 1 and not more than 3; and the recording medium has a water absorption of not less than 0 g/m 2 and not more than 10 g/m 2 as measured in a pure water contact time of 100 ms. the water-based ink comprises at least one acetylene glycol selected from the group consisting of 2,4,7, 9-tetramethyl-5-decyne-4,7-diol, 3,6-dimethyl-4-octyne-3,6-diol and 2,5-dimethyl-3-hexyne-2,5-diol, a nonionic surfactant, a pigment and water; the nonionic surfactant is an alkyleneoxide adduct of an alcohol having not less than 6 and not more than 30 carbon atoms; a content of the component in the water-based ink is not less than 1.0% by mass and not more than 3.0% by mass, and a mass ratio of the component to the component [ /] is not less than 1 and not more than 3; and the recording medium has a water absorption of not less than 0 g/m 2 and not more than 10 g/m 2 as measured in a pure water contact time of 100 ms.
A system for planning a radiation therapy treatment of a target structure in a region of a patient body, wherein radiation delivered to the region comprises a plurality of radiation contributions which are individually controllable on the basis of a treatment plan and wherein the system comprises a planning unit (4, 25) configured to: - obtain a first treatment plan generated in accordance with values of parameters quantifying an amount of radiation provided by the radiation components and resulting in a first dose distribution in the region of the patient body, - obtain an instruction to change a radiation dose delivered to at least one volume element of the region according to the first dose distribution, and - directly calculate, for at least some of the radiation components, a change of the parameter value quantifying the amount of radiation provided by the radiation component on the basis of the instruction and on the basis of the contribution of the radiation component to the radiation dose delivered to the at least one volume element, - calculate updated parameter values on the basis of the determined changes of the parameter values quantifying the amount of radiation provided by the radiation components, - determine a second treatment plan on the basis of the updated parameter values, characterized in that the parameter values quantifying the changes of the amount of radiation provided by the radiation components are bound to an upper and/or lower threshold and wherein the planning unit (4, 25) is configured to calculate the updated parameter values by iteratively adding the determined changes to the parameter values until a parameter value reaches the upper or lower threshold or until a dose distribution resulting from a treatment plan generated on the basis of the updated parameter values includes the changed dose of the at least one volume element. - obtain a first treatment plan generated in accordance with values of parameters quantifying an amount of radiation provided by the radiation components and resulting in a first dose distribution in the region of the patient body, - obtain an instruction to change a radiation dose delivered to at least one volume element of the region according to the first dose distribution, and - directly calculate, for at least some of the radiation components, a change of the parameter value quantifying the amount of radiation provided by the radiation component on the basis of the instruction and on the basis of the contribution of the radiation component to the radiation dose delivered to the at least one volume element, - calculate updated parameter values on the basis of the determined changes of the parameter values quantifying the amount of radiation provided by the radiation components, - determine a second treatment plan on the basis of the updated parameter values,
Assembly for placing nanoparticles of metal or semiconductor material on a wafer or any other substrate, comprising (a) a liquid reservoir (14, 150) with a liquid; (b) a metal- or semiconductor piece (8, 80) present in the liquid reservoir (14, 150); (c) a laser for removing nanoparticles from the metal- or semiconductor piece inside the liquid in the liquid reservoir (14, 150); and (d) means for placing the liquid comprising the metal particles on the substrate characterized in that (e) the wafer or the other substrate is positioned outside the liquid reservoir (14, 150); (f) the liquid (1, 10) is a curable polymer or any other curable plastic material, (g) the liquid reservoir comprises a chamber which conically narrows at its lower end and which comprises a capillary or a jet for placing the liquid comprising the nanoparticles on the substrate, wherein the metal- or semiconductor pieces are positioned in the conical range before the jet, and (h) flow generating means (17, 30, 50) are provided for generating a liquid flow in the range where nano particles are removed from the metal- or semiconductor portions (8, 80). (a) a liquid reservoir (14, 150) with a liquid; (b) a metal- or semiconductor piece (8, 80) present in the liquid reservoir (14, 150); (c) a laser for removing nanoparticles from the metal- or semiconductor piece inside the liquid in the liquid reservoir (14, 150); and (d) means for placing the liquid comprising the metal particles on the substrate characterized in that (e) the wafer or the other substrate is positioned outside the liquid reservoir (14, 150); (f) the liquid (1, 10) is a curable polymer or any other curable plastic material, (g) the liquid reservoir comprises a chamber which conically narrows at its lower end and which comprises a capillary or a jet for placing the liquid comprising the nanoparticles on the substrate, wherein the metal- or semiconductor pieces are positioned in the conical range before the jet, and (h) flow generating means (17, 30, 50) are provided for generating a liquid flow in the range where nano particles are removed from the metal- or semiconductor portions (8, 80).
An antenna array comprising: a printed circuit board having a plurality of printed circuit board launchers; and an array of antenna horns (121, 121A, 121B, 121C) coupled with the printed circuit board, one or more antenna horns of the array of antenna horns (121, 121A, 121B, 121C) includes a frame having at least one aperture forming a cup structure that circumscribes a respective printed circuit board launcher, the frame having a first end coupled to the printed circuit board and a second end longitudinally spaced from the first end and extending from the printed circuit board, and a plurality of compliant coupling members extending longitudinally from the first end, the plurality of compliant coupling members being coupled with respective receiving apertures of the printed circuit board such that coupling of the plurality of compliant coupling members and the respective receiving apertures solely couples the one or more antenna horns to the printed circuit board, characterized in that the receiving apertures include electrically conductive traces which protrude above the surface of the printed circuit board so that a gap exists between the first end of each antenna horn and the surface of the printed circuit board. a printed circuit board having a plurality of printed circuit board launchers; and an array of antenna horns (121, 121A, 121B, 121C) coupled with the printed circuit board, one or more antenna horns of the array of antenna horns (121, 121A, 121B, 121C) includes a frame having at least one aperture forming a cup structure that circumscribes a respective printed circuit board launcher, the frame having a first end coupled to the printed circuit board and a second end longitudinally spaced from the first end and extending from the printed circuit board, and a plurality of compliant coupling members extending longitudinally from the first end, the plurality of compliant coupling members being coupled with respective receiving apertures of the printed circuit board such that coupling of the plurality of compliant coupling members and the respective receiving apertures solely couples the one or more antenna horns to the printed circuit board, characterized in that the receiving apertures include electrically conductive traces which protrude above the surface of the printed circuit board so that a gap exists between the first end of each antenna horn and the surface of the printed circuit board.
A method, comprising: interpreting a reductant amount target comprising a target amount of reductant in an exhaust conduit at a position upstream of a NO X reduction catalyst (108, 110); detecting a transient event, the transient event comprising an event that is expected to cause a decrease in temperature of the NO X reduction catalyst (108, 110) and thereby increase the reductant storage capacity of the NO X reduction catalyst (108, 110); in response to the transient event, adjusting the reductant amount target to provide an adjusted reductant amount target greater than the reductant amount target; and providing a reductant doser command in response to the adjusted reductant amount target wherein providing the adjusted reductant amount target comprises determining a magnitude and a rate of the transient event, determining an actuator transient adjustment in response to the magnitude and the rate of the transient event, and determining the magnitude of the actuator transient adjustment as an area under a time-injection rate curve. interpreting a reductant amount target comprising a target amount of reductant in an exhaust conduit at a position upstream of a NO X reduction catalyst (108, 110); detecting a transient event, the transient event comprising an event that is expected to cause a decrease in temperature of the NO X reduction catalyst (108, 110) and thereby increase the reductant storage capacity of the NO X reduction catalyst (108, 110); in response to the transient event, adjusting the reductant amount target to provide an adjusted reductant amount target greater than the reductant amount target; and providing a reductant doser command in response to the adjusted reductant amount target wherein providing the adjusted reductant amount target comprises determining a magnitude and a rate of the transient event, determining an actuator transient adjustment in response to the magnitude and the rate of the transient event, and determining the magnitude of the actuator transient adjustment as an area under a time-injection rate curve.
A method to register retinal images, the method comprising: determining a first tracing of a blood vessel in a first retinal image acquired at a first optical wavelength; determining a second tracing of the blood vessel in a second retinal image acquired at a second optical wavelength; identifying features common to the first tracing and the second tracing to obtain identified features; determining a feature displacement vector for each identified feature of the second tracing with respect to a corresponding identified feature of the first tracing; calculating, in accordance with the feature displacement vectors, a pixel displacement vector for pixels of the second retinal image; and transforming the second retinal image in accordance with the pixel displacement vectors to obtain a transformed second image registered to the first retinal image. determining a first tracing of a blood vessel in a first retinal image acquired at a first optical wavelength; determining a second tracing of the blood vessel in a second retinal image acquired at a second optical wavelength; identifying features common to the first tracing and the second tracing to obtain identified features; determining a feature displacement vector for each identified feature of the second tracing with respect to a corresponding identified feature of the first tracing; calculating, in accordance with the feature displacement vectors, a pixel displacement vector for pixels of the second retinal image; and transforming the second retinal image in accordance with the pixel displacement vectors to obtain a transformed second image registered to the first retinal image.