mhurhangee/ep-ind-claims huggingface dataset:
A vehicle treatment device having a foam generator, comprising a foam generation chamber which contains or consists of a porous filling material, especially a tangled material, and which has at least one inlet (5, 6) for supplying a liquid and a gas as well as an outlet for discharging the foam generated in the foam generation chamber, characterized in that the mean pore diameter (P m) of a cross-sectional area of the filling material decreases from the inlet (5, 6) to the outlet continuously and/or discretely, in particular in two or three stages, wherein the filling material includes knitted fibers, especially knitted synthetic fibers, and the filling material consists of a plurality of portions (31, 32, 33) arranged directly in series in the axial direction of the foam generation chamber, substantially without any spacing, the cross-sectional areas of which differ by their mean pore diameter (P m). the mean pore diameter (P m) of a cross-sectional area of the filling material decreases from the inlet (5, 6) to the outlet continuously and/or discretely, in particular in two or three stages, wherein the filling material includes knitted fibers, especially knitted synthetic fibers, and the filling material consists of a plurality of portions (31, 32, 33) arranged directly in series in the axial direction of the foam generation chamber, substantially without any spacing, the cross-sectional areas of which differ by their mean pore diameter (P m).
A programmable device comprising a field programmable gate array (FPGA) and a secure microcontroller coupled to the FPGA, wherein said secure microcontroller comprises nonvolatile memory (314, 322) storing a programmable device certificate (CHIP CERT), a first programming equipment certificate and a certificate authority certificate, wherein the first programming equipment certificate is associated with a first programming equipment located at a trusted site, wherein the programmable device is configured to perform mutual authentication with a second programming equipment located at an untrusted site, said mutual authentication includes sending the programmable device certificate (CHIP CERT) and the first programming equipment certificate to the second programming equipment, wherein the FPGA includes a memory storing an FPGA key, and wherein the secure microcontroller includes a secure nonvolatile memory storing the FPGA key, wherein the secure microcontroller is adapted to program information encrypted by the FPGA key into the FPGA, and wherein the FPGA key cannot be read out of the secure microcontroller or the FPGA so that the FPGA is bound to the secure microcontroller, wherein the microcontroller is configured to encrypt information using the FPGA key stored in the microcontroller, and wherein the FPGA comprises a decryption engine configured to decrypt the encrypted information using the FPGA key stored in the memory of the FPGA, and wherein the microcontroller is configured to decrypt information received from the second programming equipment using a private key of the programmable device.
A vehicle body, in particular for commercial vehicles, having at least a middle stake and a tarpaulin, which can be fixed to the middle stake by a fastening system and delimits a load space when in a closed state, the fastening system having at least one first fastening element (26, 26') which is associated with the tarpaulin and at least one second fastening element (28, 28') which is formed on the middle stake, it being possible to bring the first fastening element (26, 26') and the second fastening element (28, 28') into detachable engagement with each other, and the first fastening element (26, 26') being connected to a pulling element which can be actuated from outside the load space independently of the tarpaulin, characterised in that the pulling element can be moved in a vertical direction independently of the tarpaulin.
A method of controlling merging of a plurality of streams of vehicles in an automated vehicle system, the automated vehicle system including a network of tracks along which the vehicles are adapted to travel, the network including at least one merge point at which at least two upstream tracks merge to form a downstream track, the method comprising: - defining a merge control zone associated with the merge point, the merge control zone defining at least respective sections of the upstream tracks; - detecting a vehicle entering the merge control zone on a first one of the upstream tracks, the vehicle being a vehicle of a sequence of one or more vehicles approaching the merge point on said first upstream track; characterised by - allocating a passage time to the detected vehicle, the passage time being indicative of a time at which the vehicle is scheduled to pass the merge point; wherein allocating the passage time is based on a merge priority assigned to the vehicle according to a predetermined set of merge priority rules; - controlling a speed of the vehicle responsive to the allocated passage time. - defining a merge control zone associated with the merge point, the merge control zone defining at least respective sections of the upstream tracks; - detecting a vehicle entering the merge control zone on a first one of the upstream tracks, the vehicle being a vehicle of a sequence of one or more vehicles approaching the merge point on said first upstream track; characterised by - allocating a passage time to the detected vehicle, the passage time being indicative of a time at which the vehicle is scheduled to pass the merge point; wherein allocating the passage time is based on a merge priority assigned to the vehicle according to a predetermined set of merge priority rules; - controlling a speed of the vehicle responsive to the allocated passage time.
A method of making a membrane photoelectrode for solar water splitting, comprising: a. providing a substrate, having at least a top surface and a bottom surface; b. forming a layer of indium-rich nanowires on the top surface of the substrate, said nanowires having a top surface and a bottom surface, wherein the bottom surface of each nanowire is embedded perpendicularly into the top surface of the substrate; c. depositing a metal contact layer across the top surface of the nanowires, said contact layer having at least a top surface and a bottom surface; d. depositing a supporting layer across the top surface of the contact layer, said supporting layer having at least a top surface and a bottom surface; e. etching the supporting layer to form holes in said supporting layer, wherein the location of each hole corresponds to an exposed area of the metal contact layer; and f. removing the substrate by etching, wherein a freely suspended membrane photo-electrode is formed. a. providing a substrate, having at least a top surface and a bottom surface; b. forming a layer of indium-rich nanowires on the top surface of the substrate, said nanowires having a top surface and a bottom surface, wherein the bottom surface of each nanowire is embedded perpendicularly into the top surface of the substrate; c. depositing a metal contact layer across the top surface of the nanowires, said contact layer having at least a top surface and a bottom surface; d. depositing a supporting layer across the top surface of the contact layer, said supporting layer having at least a top surface and a bottom surface; e. etching the supporting layer to form holes in said supporting layer, wherein the location of each hole corresponds to an exposed area of the metal contact layer; and f. removing the substrate by etching, wherein a freely suspended membrane photo-electrode is formed.
A method comprising: generating, by a first satellite, a first plurality of spot beams (1/2, 3/4) for a first frequency reuse plan based on a plurality of radio frequency, RF, spectrum bands; generating, by a second satellite, a second plurality of spot beams (A/B, C/D) for a second frequency reuse plan based on the plurality of RF spectrum bands; and interleaving a the first plurality of spot beams (1/2, 3/4) and the second plurality of spot beams (A/B, C/D) to generate an aggregate frequency reuse cell plan; and wherein, according to the aggregate frequency reuse plan, i. each of a first plurality of cells is covered by a combination of at least two of the plurality of spot beams (1/2, 3/4) of the first satellite, ii. each of a second plurality of cells is covered by a combination of at least two of the plurality of spot beams (A/B, C/D) of the second satellite, and iii. each of a third plurality of cells is covered by at least one of the plurality of spot beams (1/2) of the first satellite and at least one of the plurality of spot beams (A/B) of the second satellite. generating, by a first satellite, a first plurality of spot beams (1/2, 3/4) for a first frequency reuse plan based on a plurality of radio frequency, RF, spectrum bands; generating, by a second satellite, a second plurality of spot beams (A/B, C/D) for a second frequency reuse plan based on the plurality of RF spectrum bands; and interleaving a the first plurality of spot beams (1/2, 3/4) and the second plurality of spot beams (A/B, C/D) to generate an aggregate frequency reuse cell plan; and wherein, according to the aggregate frequency reuse plan, i. each of a first plurality of cells is covered by a combination of at least two of the plurality of spot beams (1/2, 3/4) of the first satellite, ii. each of a second plurality of cells is covered by a combination of at least two of the plurality of spot beams (A/B, C/D) of the second satellite, and iii. each of a third plurality of cells is covered by at least one of the plurality of spot beams (1/2) of the first satellite and at least one of the plurality of spot beams (A/B) of the second satellite.
An occluding device for implantation within an aneurysm with a wall which can be brought from a compressed state into an expanded state and at least in the implanted state is suitable for completely surrounding a hollow space, wherein the wall is formed by two wall sections (12, 13) which are connected to each other by a connecting element and can be moved relative to each other, wherein in the expanded state the wall sections each have a spherical segment-like shape, characterised in that the wall sections are movable in such a way that the size of the hollow space is variable, wherein the wall sections (12, 13) are suitable, at least in the implanted state, for overlapping each other at least in sections and to slide on each other for radial expansion of the wall so that the occluding device can be adapted to the aneurysm in the radial direction.
A water-glycol hydraulic fluid comprising: from 20 to 60% by mass of water and from 20 to 60% by mass glycol; 0.2% by mass or more and 0.6% by mass or less of a dimer acid as a fatty acid lubricant, wherein the dimer acid is a dimer of an unsaturated fatty acid having 18 carbon atoms, and is mainly composed of a dibasic acid of a dicarboxylic acid having 36 carbon atoms produced by dimerization of an unsaturated fatty acid having 18 carbon atoms derived from plant-based fats and oils and wherein the dimer acid is a liquid fatty acid also containing a monobasic acid and a tribasic acid; and more than 0.10% by mass and 0.20% by mass or less of a phosphoric acid ester represented by general formula below, wherein R 1 and R 2 may be the same or different, each representing a hydrogen atom or a hydrocarbon group having from 1 to 30 carbon atoms, R 3 represents a hydrocarbon group having from 1 to 20 carbon atoms, R 4 represents a hydrogen atom or a hydrocarbon group having from 1 to 30 carbon atoms, and X 1, X 2, X 3 and X 4 may be the same or different, each representing an oxygen atom or a sulfur atom, and wherein the sum of the dimer acid and the phosphoric acid ester is more than 0.35% by mass. from 20 to 60% by mass of water and from 20 to 60% by mass glycol; 0.2% by mass or more and 0.6% by mass or less of a dimer acid as a fatty acid lubricant, wherein the dimer acid is a dimer of an unsaturated fatty acid having 18 carbon atoms, and is mainly composed of a dibasic acid of a dicarboxylic acid having 36 carbon atoms produced by dimerization of an unsaturated fatty acid having 18 carbon atoms derived from plant-based fats and oils and wherein the dimer acid is a liquid fatty acid also containing a monobasic acid and a tribasic acid; and more than 0.10% by mass and 0.20% by mass or less of a phosphoric acid ester represented by general formula below, wherein R 1 and R 2 may be the same or different, each representing a hydrogen atom or a hydrocarbon group having from 1 to 30 carbon atoms, R 3 represents a hydrocarbon group having from 1 to 20 carbon atoms, R 4 represents a hydrogen atom or a hydrocarbon group having from 1 to 30 carbon atoms, and X 1, X 2, X 3 and X 4 may be the same or different, each representing an oxygen atom or a sulfur atom, and wherein the sum of the dimer acid and the phosphoric acid ester is more than 0.35% by mass.
A flexible implant system comprising: a flexible implant configured to loop around a portion of a bony element; an implant housing including a housing body defining a rod passage and an implant passage, the rod passage configured to receive a portion of a rod, the implant passage receiving a portion of the flexible implant, a first opening defined in the housing body in communication with the rod passage, a second opening defined in the housing body in communication with the implant passage, the first opening and second opening being distinct from each other; an implant chock positioned within the implant passage; and an implant set screw positioned in the second opening for engaging the implant chock to fix the flexible implant to the implant housing. a flexible implant configured to loop around a portion of a bony element; an implant housing including a housing body defining a rod passage and an implant passage, the rod passage configured to receive a portion of a rod, the implant passage receiving a portion of the flexible implant, a first opening defined in the housing body in communication with the rod passage, a second opening defined in the housing body in communication with the implant passage, the first opening and second opening being distinct from each other; an implant chock positioned within the implant passage; and an implant set screw positioned in the second opening for engaging the implant chock to fix the flexible implant to the implant housing.
An apparatus operable in a wireless communication system, the apparatus comprising: means for decoding (314, 502) a downlink subframe included in a bundle that includes multiple downlink subframes of a radio frame; means for detecting a Cyclic Redundancy Check, CRC, failure (314, 504) of the downlink subframe; means for inhibiting (318, 506) decoding, upon detecting a CRC failure of the downlink subframe, of at least one subsequent downlink subframe, if present, included in the bundle prior to an uplink subframe; means for reporting (316, 508) a single CRC failure for all the multiple downlink subframes in the bundle via the uplink subframe if the CRC failure of the downlink subframe is detected; and means for decoding of a retransmission of the bundle responsive to reporting of the single CRC failure characterised by: wherein the decoding of the retransmitted bundle skips decoding the downlink subframes of the bundle that were previously successfully decoded and beging decoding at the downlink subframe detected to have previously failed the CRC. means for decoding (314, 502) a downlink subframe included in a bundle that includes multiple downlink subframes of a radio frame; means for detecting a Cyclic Redundancy Check, CRC, failure (314, 504) of the downlink subframe; means for inhibiting (318, 506) decoding, upon detecting a CRC failure of the downlink subframe, of at least one subsequent downlink subframe, if present, included in the bundle prior to an uplink subframe; means for reporting (316, 508) a single CRC failure for all the multiple downlink subframes in the bundle via the uplink subframe if the CRC failure of the downlink subframe is detected; and means for decoding of a retransmission of the bundle responsive to reporting of the single CRC failure characterised by: wherein the decoding of the retransmitted bundle skips decoding the downlink subframes of the bundle that were previously successfully decoded and beging decoding at the downlink subframe detected to have previously failed the CRC.
Revolving door system having at least one rotatably mounted door leaf, and having at least one drive device arranged in a fixed position, the drive output member of which is operatively connected to the door leaf via a slide arm and a guide element, wherein the door leaf is in the form of an all-glass leaf with at least one pane, and the guide element is displaceable along an edge of the pane of the door leaf, characterized in that the guide element engages around the edge of the pane of the door leaf, and in that the guide element has a main body and two guide limbs (15, 16) which engage in a U-shape around the edge of the pane of the door leaf, and in that the distance between the inner faces of the guide limbs (15, 16) is slightly greater than the thickness of the pane of the door leaf in this region, and in that the distance between the inner faces of the guide limbs (15, 16) is settable via an adjusting device.
An apparatus for applying flowable material onto a substrate that is rotatable about an axis of rotation, according to predetermined image data which are stored in a first memory as pixels or vectors of a specific Cartesian coordinate system, having at least one printing head (13A, 13B) which has a plurality of nozzles arranged at a nozzle distance from one another for discharging material droplets of the flowable material and which is arranged at a vertical distance from the substrate, and having an actuation device for positioning the substrate relative to the at least one printing head (13A, 13B) and for controlling the discharge of the material droplets, wherein a second memory is present, in which special polar coordinate grid points (20, 20', 20A, 20B) of a specific polar coordinate grid are stored, said special polar coordinate grid points being arranged on circles (R1, R2, R1'... R7', R1"... R13") which have a predetermined circumferential distance from one another and being arranged on first rays (A1, A1') which have a first angular distance from one another and being arranged on further rays (A2, A2', A3') in the direction of the origin, said further rays having an angular distance from one another that is greater than the first angular distance, said special polar coordinate grid points being stored as Cartesian grid points in coordinates of the specific Cartesian coordinate system, wherein a computer is present, by means of which the Cartesian grid points are compared to the pixels or the vectors of the image data, and wherein the nozzles of the printing head (13A, 13B) are controllable in such a way that they only discharge material droplets when their position relative to the substrate corresponds to the position of a special polar coordinate grid point (20A, 20B) at which the comparison yields a correspondence.
Filtering device, in particular for gas filtration, for example an air filter, having a round filter element and having a filter housing for receiving the round filter element, wherein the round filter element comprises a filter medium body, the wall of which can be flowed through in radial direction by the fluid to be cleaned with regard to the longitudinal axis of the filter medium body, having respectively one end disk (9, 10) on opposing front faces of the filter medium body, wherein one of the end disks is designed as an open end disk which features a flow opening, wherein the raw side is located in an inside-lying flow chamber in the filter medium body and a support grid is disposed at the outer wall of the filter medium body, and wherein the filter housing comprises a housing cover, characterized in that a lateral flow opening, which is designed as an inflow opening to allow a radial inflow of raw fluid, is provided in the housing cover with regard to the longitudinal axis, that the housing cover features on the interior side a flow guide rib which is sword-shaped and that the flow guide rib protrudes through the flow opening in the open end disk into the inside-lying flow chamber of the round filter element.
Electrical installation, comprising an enclosure, an electrical element under electrical tension located in the enclosure, and a heat transfer assembly thermally and mechanically connected to the electric element, in which the heat transfer assembly part comprises: - an electrically conductive heat pipe having an evaporator part thermally and mechanically connected to the electric element of the installation, and - an electrically insulating body separate from the heat pipe and arranged between the heat pipe and the electric element, the electrically insulating body insulating from potentially high voltages on the electrical element and transferring heat to the heat pipe, wherein the evaporator part of the heat pipe is located inside the enclosure of the electrical installation. - an electrically conductive heat pipe having an evaporator part thermally and mechanically connected to the electric element of the installation, and - an electrically insulating body separate from the heat pipe and arranged between the heat pipe and the electric element, the electrically insulating body insulating from potentially high voltages on the electrical element and transferring heat to the heat pipe,