mhurhangee/ep-ind-claims huggingface dataset:
Device for machining of, in particular elongated, workpieces for forming grooves or groove-like surface structurings in the surface of the workpiece, comprising: - a machining unit for machining of, in particular elongated, workpieces and - a feed device, which can be or is coupled to the machining unit and is adapted to realise a feed of the machining unit along the surface of a workpiece to be machined, wherein the machining unit comprises -- a housing part, on or in which functional components of the machining unit are arranged or formed, -- a machining tool, wherein the machining tool is movable in a movement plane in at least two different, combined movement paths, wherein the machining tool is movable in trochoidal or cycloid movements in the movement plane, wherein the machining tool is arranged in the housing part; -- at least one drive unit, which is adapted for combined movement of the machining tool in a first movement path and in a second movement path different from the first movement path, wherein the at least one drive unit (4a - 4c) is arranged on or in the housing part, wherein the machining tool is movable relative to the housing part in the at least two different, combined movement paths, so that movements of the machining tool relative to a workpiece to be machined can take place independently or decoupled from movements of the overall machining unit relative to the workpiece to be machined; -- a control device, which is adapted to control the at least one drive unit to realise combined movements of the machining tool in the movement plane, wherein the combined movements are the trochoidal or cycloid movements of the machining tool in the movement plane. - a machining unit for machining of, in particular elongated, workpieces and - a feed device, which can be or is coupled to the machining unit and is adapted to realise a feed of the machining unit along the surface of a workpiece to be machined, wherein -- a housing part, on or in which functional components of the machining unit are arranged or formed, -- a machining tool, wherein the machining tool is movable in a movement plane in at least two different, combined movement paths, wherein the machining tool is movable in trochoidal or cycloid movements in the movement plane, wherein -- at least one drive unit, which is adapted for combined movement of the machining tool in a first movement path and in a second movement path different from the first movement path, wherein -- a control device, which is adapted to control the at least one drive unit to realise combined movements of the machining tool in the movement plane, wherein the combined movements are the trochoidal or cycloid movements of the machining tool in the movement plane.
A fuel production system comprising: a power generating device that generates variable electric power; a power distribution device that is connected to the power generating device to distribute electric power to a first electric load and a second electric load; and a control device configured to control the power distribution with the power distribution device, wherein; the first electric load is a mixed gas generating device configured to perform electrolysis on water and carbon dioxide upon receipt of electric power distributed by the power distribution device to generate a mixed gas made of hydrogen and carbon monoxide, the second electric load is an electric load that has a smaller degree of variation in energy efficiency at the time of supplying the variable electric power than that of the mixed gas generating device, and the control device is configured to supply predetermined electric power to the mixed gas generating device, wherein the predetermined electric power is lower than the minimum power generated by the power generating device within a preselected period of time, the control device being further configured to supply power that exceeds the predetermined electric power to the second electric load. a power generating device that generates variable electric power; a power distribution device that is connected to the power generating device to distribute electric power to a first electric load and a second electric load; and a control device configured to control the power distribution with the power distribution device, wherein; the first electric load is a mixed gas generating device configured to perform electrolysis on water and carbon dioxide upon receipt of electric power distributed by the power distribution device to generate a mixed gas made of hydrogen and carbon monoxide, the second electric load is an electric load that has a smaller degree of variation in energy efficiency at the time of supplying the variable electric power than that of the mixed gas generating device, and the control device is configured to supply predetermined electric power to the mixed gas generating device, wherein the predetermined electric power is lower than the minimum power generated by the power generating device within a preselected period of time, the control device being further configured to supply power that exceeds the predetermined electric power to the second electric load.
A connecting member (210; 220; 310; 320; 410; 420; 510; 530; 610; 710) for electrically connecting a circuit board (300; 400; 500; 600; 700) and a component in an electronic device, the connecting member comprising: at least one elastic bending part (216; 226; 716), the connecting member being characterized in that it further comprises: a pad part (214; 224) connected to the bending part and configured to be attached to a side surface of the circuit board; and a fixing part (212; 222; 712) extending from the pad part and configured to fix the connecting member to one of a front surface or a rear surface of the circuit board, wherein the bending part contacts the component at the side of the circuit board, and is pressed by the component toward the side surface of the circuit board. at least one elastic bending part (216; 226; 716), the connecting member being characterized in that it further comprises: a pad part (214; 224) connected to the bending part and configured to be attached to a side surface of the circuit board; and a fixing part (212; 222; 712) extending from the pad part and configured to fix the connecting member to one of a front surface or a rear surface of the circuit board, wherein the bending part contacts the component at the side of the circuit board, and is pressed by the component toward the side surface of the circuit board. a pad part (214; 224) connected to the bending part and configured to be attached to a side surface of the circuit board; and a fixing part (212; 222; 712) extending from the pad part and configured to fix the connecting member to one of a front surface or a rear surface of the circuit board, wherein the bending part contacts the component at the side of the circuit board, and is pressed by the component toward the side surface of the circuit board.
A uterine hemorrhage controlling system comprising: • a connecting tube comprising a lumen and further comprising a proximal portion configured to connect to a pump; • a suction module configured for insertion into a uterus, the suction module comprising a set of flexible suction tubes of which a first flexible suction tube is configured to form a first loop and a second flexible tube is configured to form a second loop, said loops configured to extend different distances, wherein a set of openings are oriented to open along a medial surface of the first loop to prevent uterine tissue or other tissue from obstructing the set of openings, and wherein the suction module is fluidly connect to the lumen of the connecting tube, and wherein activation of the pump generates a negative pressure at the set of openings to induce uterine contraction about the first loop without obstruction of the set of openings; • a shield formed by the flexible suction tube (124") configured to limit obstruction of the set of openings; and • a seal coupled to the suction module via the connecting tube and operable in a first configuration, wherein the seal is configured to hermetically seal an entrance to the uterus to maintain a negative pressure within the uterus, and a second configuration in which the seal is contracted. • a connecting tube comprising a lumen and further comprising a proximal portion configured to connect to a pump; • a suction module configured for insertion into a uterus, the suction module comprising a set of flexible suction tubes of which a first flexible suction tube is configured to form a first loop and a second flexible tube is configured to form a second loop, said loops configured to extend different distances, wherein a set of openings are oriented to open along a medial surface of the first loop to prevent uterine tissue or other tissue from obstructing the set of openings, and wherein the suction module is fluidly connect to the lumen of the connecting tube, and wherein activation of the pump generates a negative pressure at the set of openings to induce uterine contraction about the first loop without obstruction of the set of openings; • a shield formed by the flexible suction tube (124") configured to limit obstruction of the set of openings; and • a seal coupled to the suction module via the connecting tube and operable in a first configuration, wherein the seal is configured to hermetically seal an entrance to the uterus to maintain a negative pressure within the uterus, and a second configuration in which the seal is contracted.
An aircraft landing gear shock absorber assembly comprising: an outer cylinder having a bore which extends into the outer cylinder, the bore defining an opening in the outer cylinder; and a sliding tube comprising a first end region slidably coupled within the bore and a second end region which projects out of the opening; wherein the shock absorber assembly includes end stops which limit the amount of relative sliding movement between the sliding tube and outer cylinder such that the shock absorber assembly can extend and retract between maximum and minimum extension states, the shock absorber assembly including upper and lower bearings (24, 20) axially spaced from one another along the longitudinal axis of the shock absorber assembly, each bearing being arranged to move in sliding engagement with respective upper and lower counter face portions (CFU, CFL) of the sliding tube or outer cylinder as the shock absorber assembly extends and retracts between the maximum and minimum extension states, wherein the outer cylinder or the second end region of the sliding tube is configured to be mechanically coupled with a mechanical fixing to a ground fitting distinct from the sliding tube, characterised in that: the sliding tube comprises a tubular body portion formed from a ceramic fibre composite tube, and wherein the lower counter face portion is defined by a ceramic coated portion of the sliding tube. an outer cylinder having a bore which extends into the outer cylinder, the bore defining an opening in the outer cylinder; and a sliding tube comprising a first end region slidably coupled within the bore and a second end region which projects out of the opening; wherein the shock absorber assembly includes end stops which limit the amount of relative sliding movement between the sliding tube and outer cylinder such that the shock absorber assembly can extend and retract between maximum and minimum extension states, the shock absorber assembly including upper and lower bearings (24, 20) axially spaced from one another along the longitudinal axis of the shock absorber assembly, each bearing being arranged to move in sliding engagement with respective upper and lower counter face portions (CFU, CFL) of the sliding tube or outer cylinder as the shock absorber assembly extends and retracts between the maximum and minimum extension states, wherein the outer cylinder or the second end region of the sliding tube is configured to be mechanically coupled with a mechanical fixing to a ground fitting distinct from the sliding tube, characterised in that: the sliding tube comprises a tubular body portion formed from a ceramic fibre composite tube, and wherein the lower counter face portion is defined by a ceramic coated portion of the sliding tube. the sliding tube comprises a tubular body portion formed from a ceramic fibre composite tube, and wherein the lower counter face portion is defined by a ceramic coated portion of the sliding tube.
A compound comprising: (a) a first component, wherein the first component is a selective estrogen receptor modulator (SERM); and (b) a second component, wherein the second component is a ribosome inactivating toxin, and wherein the second component is conjugated to the first component. (a) a first component, wherein the first component is a selective estrogen receptor modulator (SERM); and (b) a second component, wherein the second component is a ribosome inactivating toxin, and
A piezoelectric ceramic composition comprising a compound, which contains Na, Bi, Ti, and Ln (lanthanoide)and has a Na 0.5 Bi 4.5 Ti 4 O 15 type crystal structure, as a main component, characterized in that the compound further contains Co, and the piezoelectric ceramic composition has an atomic ratio of 0 < Ln / (Na + Bi + Ln) ≤ 0.04 and is substantially free of an element of group 2 of the periodic table.
A barrel nut assembly (35, 37, 40, 50, 70, 80, 90), comprising: a barrel nut; and a barrel nut positioning frame (45, 51, 81) for maintaining the barrel nut in a desired position in a bore (22, 61) of a component, the frame comprising: a frame body configured to receive the barrel nut therein, the frame body being adapted to fit, together with a received barrel nut, within a bore; and a bore engagement element configured to engage with a positioning feature in the bore so as to restrict movement of the frame within the bore, wherein the barrel nut is located in the frame body and the frame body comprises a spine extending longitudinally along a length of the barrel nut, and at least one circumferential prong (47, 48, 52, 53) extending at least partially around an outside circumference of the barrel nut. a barrel nut; and a barrel nut positioning frame (45, 51, 81) for maintaining the barrel nut in a desired position in a bore (22, 61) of a component, the frame comprising: a frame body configured to receive the barrel nut therein, the frame body being adapted to fit, together with a received barrel nut, within a bore; and a bore engagement element configured to engage with a positioning feature in the bore so as to restrict movement of the frame within the bore, a frame body configured to receive the barrel nut therein, the frame body being adapted to fit, together with a received barrel nut, within a bore; and a bore engagement element configured to engage with a positioning feature in the bore so as to restrict movement of the frame within the bore, wherein the barrel nut is located in the frame body and the frame body comprises a spine extending longitudinally along a length of the barrel nut, and at least one circumferential prong (47, 48, 52, 53) extending at least partially around an outside circumference of the barrel nut.
A solid composition comprising: a) from 25 to 88 wt. % free acid equivalent of non-crystalline chiral aminopolycarboxylate; and b) from 10 to 60 wt. % free acid equivalent of non-crystalline organic acid different from aminopolycarboxylate; and c) from 0.7 to below 2 wt. % of water; wherein the organic acid has an average molecular mass of at most 500 Dalton, the molecular mass being based on the free acid equivalent. a) from 25 to 88 wt. % free acid equivalent of non-crystalline chiral aminopolycarboxylate; and b) from 10 to 60 wt. % free acid equivalent of non-crystalline organic acid different from aminopolycarboxylate; and c) from 0.7 to below 2 wt. % of water;
A method for producing cDNA from one or more biological units containing RNA, wherein the biological unit is a cell obtained from cell culture or from a body fluid, said method comprising: • preparing an admixture of the biological unit and at least one catabolic enzyme, whereby said enzyme is at least proteinase K; • incubating the admixture under conditions where the catabolic enzyme is active; • raising the temperature to a point where the catabolic enzyme is inactivated; • incubating the admixture with at least one reverse transcriptase under conditions to allow reverse transcription; • wherein the admixture is incubated with a deoxyribonuclease prior to the reverse transcription; and • wherein the deoxyribonuclease is used in combination with the proteinase K in preparing the admixture. • preparing an admixture of the biological unit and at least one catabolic enzyme, whereby said enzyme is at least proteinase K; • incubating the admixture under conditions where the catabolic enzyme is active; • raising the temperature to a point where the catabolic enzyme is inactivated; • incubating the admixture with at least one reverse transcriptase under conditions to allow reverse transcription; • wherein the admixture is incubated with a deoxyribonuclease prior to the reverse transcription; and • wherein the deoxyribonuclease is used in combination with the proteinase K in preparing the admixture.
An electronic control unit for a power steering unit, with a multi-part housing (21, 22), which encloses an electronic circuit (37, 38) arranged in an interior space of the housing (21, 22), and with at least one plug contact (24, 25, 26), which comprises a number of electrical contact elements which extend through the housing, comprise contact surfaces arranged outside the interior space and reach into the interior space, where they are connected to the electronic circuit (37, 38), wherein the interior space is partially or completely filled with a closed-cell foam (40 - 44), characterized in that the foam (40 - 44) is an elastic foam with an elongation at break of more than 5%.
A synthetic composite material for tissue repair comprising: - a first layer of collagen type 1 as organic material and having side walls and external surface: - a second porous layer of hydroxyapatite as inorganic material and having side walls; wherein said first layer is in direct contact with said second layer and wherein the side walls of the first layer and the side walls of the second layer are coated with a third layer of collagen. - a first layer of collagen type 1 as organic material and having side walls and external surface: - a second porous layer of hydroxyapatite as inorganic material and having side walls;
An isolated antibody, or antigen-binding portion thereof, which binds to human OX40 comprising: (a) a heavy chain variable region CDR1 comprising the amino acid sequence of SEQ ID NO:13; (b) a heavy chain variable region CDR2 comprising the amino acid sequence of SEQ ID NO:14; (c) a heavy chain variable region CDR3 comprising the amino acid sequence of SEQ ID NO:15; (d) a light chain variable region CDR1 comprising the amino acid sequence of SEQ ID NO:19; (e) a light chain variable region CDR2 comprising the amino acid sequence of SEQ ID NO:20; and (f) a light chain variable region CDR3 comprising the amino acid sequence of SEQ ID NO:21.
Radiofrequency sparkplug comprising an induction coil and a central electrode coupled to the induction coil, said induction coil having, in order from an electrical connection terminal of the sparkplug, a first end portion, a central portion, and a second end portion, said central electrode extending in line with the second end portion and away from said central portion, said induction coil having a conducting wire wound helically around a coil mandrel having a cylindrical portion while forming a succession of coaxial turns (44, 45, 58, 60), the second end portion having a terminal turn situated opposite the central portion and connected to the central electrode, said induction coil being capable of producing an electrical field induced in said second end portion; where the second end portion comprises a plurality of coaxial end turns which extend axially between said terminal turn and an upstream turn situated toward the central portion; characterized in that said terminal turn has a diameter D58 smaller than the diameter D60 of the upstream turn, while the turns of the plurality of coaxial end turns have a radius of curvature that reduces progressively between the upstream turn and the terminal turn so as to be able to reduce the intensity of the electrical field induced in the second end portion in the vicinity of the terminal turn, said coil mandrel having a coaxial frustoconical end, said conducting wire being wound helically at least around said frustoconical end in order to form the second end portion of the induction coil.
A controller configured to detect indicia of incipient mechanical motor faults having a processor programmed to: receive a first set of real-time operating current data from a motor during operation; define a noise component present in the first set of real-time operating current data; remove the noise component from the first set of real-time operating current data to identify any fault components present in the first set of real-time operating current data; generate a fault index for the first set of real-time operating current data based on any isolated fault components; acquire at least one additional set of real-time operating current data from the motor during operation; redefine the noise component present in each of the at least one additional sets of real-time operating current data; remove the redefined noise component from each of the at least one additional sets of real-time operating current data to identify any fault components present therein; and generate a fault index for each of the at least one additional sets of real-time operating current data based on any isolated fault components. receive a first set of real-time operating current data from a motor during operation; define a noise component present in the first set of real-time operating current data; remove the noise component from the first set of real-time operating current data to identify any fault components present in the first set of real-time operating current data; generate a fault index for the first set of real-time operating current data based on any isolated fault components; acquire at least one additional set of real-time operating current data from the motor during operation; redefine the noise component present in each of the at least one additional sets of real-time operating current data; remove the redefined noise component from each of the at least one additional sets of real-time operating current data to identify any fault components present therein; and generate a fault index for each of the at least one additional sets of real-time operating current data based on any isolated fault components.
A rechargeable cell comprising an outer casing, a roll and a protective cap fitted onto a top of the outer casing, the roll comprising layers of active and insulator material disposed within the outer casing, wherein an active layer of material of said roll is electrically connected to a positive terminal within the protective cap, the rechargeable cell further comprising an externally accessible hollow core which enables central cooling of the rechargeable cell, the hollow core being externally accessible by means of an aperture in a base of the outer casing opposite the protective cap and a core insert, wherein the core insert is formed of an electrically conductive material, wherein the core insert is electrically connected to an active layer of material of said roll not electrically connected to the positive terminal, and wherein the core insert provides an electrode of the rechargeable cylindrical cell; characterised in that: the core insert is electrically connected to the active layer of material along the entire axial length of the active layer of the roll.