mhurhangee/ep-ind-claims huggingface dataset:
A compound represented by the following formula or, A-L 1 -(CH 2) p -(OCH 2 CH 2) m -O-(CH 2) q -L 2 -A' in the formula, A and A' represent the following formula (i-1) or (i-2) and the symbol * in the following formulae (i-1) and (i-2) is bonded to L 1 or L 2 in the formula, in the formula, L 1 and L 2 represent -NH-, p and q represent independently an integer of 1 to 5, and m represents an integer of 10 or more and 2,500 or less, in the formula, A represents the following formula (i-1) or (i-2) and the symbol * in the following formulae (i-1) and (i-2) is bonded to L 1 in the formula, in the formula, L 1 represents -NH-, p represents an integer of 1 to 5, m represents an integer of 10 or more and 2,500 or less, and R represents any one of a hydrogen atom and a substituted or unsubstituted alkyl group having the carbon number of 1 to 5: in the formula (i-2), Y - represents a halogen ion, an acetate ion, a tartrate ion, or a succinate ion.
A method for providing a multipath satellite backbone, the method comprising: creating sub-backbone flows over multipaths between a first peer and a second peer, wherein each of the sub-backbone flows is associated with one of the multipaths; retrieving a policy (504, 510) corresponding to the first peer, the second peer and each of the multipaths, wherein the policy is selected from one or more of a Fair Access Policy, FAP, over allocation, an allowed Modulation and Coding,MODCOD, or a Quality of Service requirement; receiving a transport metric for at least one of the multipaths; calculating distribution weights for the sub-backbone flows based on the policy and the transport metric; and splitting, based on the distribution weights and the policy, a network traffic between the first peer and the second peer over the sub-backbone flows, wherein at least one of the multipaths is relayed by a satellite. creating sub-backbone flows over multipaths between a first peer and a second peer, wherein each of the sub-backbone flows is associated with one of the multipaths; retrieving a policy (504, 510) corresponding to the first peer, the second peer and each of the multipaths, wherein the policy is selected from one or more of a Fair Access Policy, FAP, over allocation, an allowed Modulation and Coding,MODCOD, or a Quality of Service requirement; receiving a transport metric for at least one of the multipaths; calculating distribution weights for the sub-backbone flows based on the policy and the transport metric; and splitting, based on the distribution weights and the policy, a network traffic between the first peer and the second peer over the sub-backbone flows, wherein at least one of the multipaths is relayed by a satellite.
A vehicle door control system for a vehicle having a vehicle body and a vehicle door, the vehicle door control system being capable of checking the door in a plurality of positions throughout a range of movement of the vehicle door that extends between a fully open position and a fully closed position, the system comprising: a check arm (18, 618) having an end that is mounted to one of the vehicle body and the vehicle door; a check arm holder (20, 620) at least a portion of which is mounted to the other of the vehicle body and the vehicle door; and a controller (22, 622), wherein the vehicle door control system is programmed to control whether or not it applies a resistive force on the vehicle door, and characterized in that the controller (22, 622) is programmed to: a) determine whether an obstacle is approaching the vehicle; b) determine data relating to the obstacle; c) determine the position of the vehicle door; and d) apply a resistive force on the vehicle door based on the determinations made in steps a) and b), wherein the resistive force is a variable resistive force. a check arm (18, 618) having an end that is mounted to one of the vehicle body and the vehicle door; a check arm holder (20, 620) at least a portion of which is mounted to the other of the vehicle body and the vehicle door; and a controller (22, 622), wherein the vehicle door control system is programmed to control whether or not it applies a resistive force on the vehicle door, and characterized in that the controller (22, 622) is programmed to: a) determine whether an obstacle is approaching the vehicle; b) determine data relating to the obstacle; c) determine the position of the vehicle door; and d) apply a resistive force on the vehicle door based on the determinations made in steps a) and b), wherein the resistive force is a variable resistive force. a) determine whether an obstacle is approaching the vehicle; b) determine data relating to the obstacle; c) determine the position of the vehicle door; and d) apply a resistive force on the vehicle door based on the determinations made in steps a) and b), wherein the resistive force is a variable resistive force.
A method for manufacturing biodiesel from plant oil in one stage with simultaneous glycerol conversion into its derivatives, where the method consists of the following sequential steps: (i) heating up of a plant oil to 40-60°C temperature, preferably to 50-60°C; (ii) maintaining the selected reactions mass temperature and adding reagent - methyl acetate in an amount, which provides a reagent and oil molar ratios ranging from 30 to 45, preferably from 36 to 43; (iii) while stirring and maintaining the selected reaction mass temperature, adding the catalyst - sodium methoxide solution in methanol at volume, which provides catalyst and oil molar ratios ranging from 0.08 to 0.2, preferably from 0.1 to 0.15; (iv) performing synthesis, preferably continuing stirring the reaction mass at desired temperature during 30-60 min, preferably during 40-45 min; (v) stopping the reaction by adding phosphoric acid in the amount required for neutralization of catalyst, distilling-off, filtration or centrifugation, and, optionally - cleaning the product obtained by washing with distilled water and drying. (i) heating up of a plant oil to 40-60°C temperature, preferably to 50-60°C; (ii) maintaining the selected reactions mass temperature and adding reagent - methyl acetate in an amount, which provides a reagent and oil molar ratios ranging from 30 to 45, preferably from 36 to 43; (iii) while stirring and maintaining the selected reaction mass temperature, adding the catalyst - sodium methoxide solution in methanol at volume, which provides catalyst and oil molar ratios ranging from 0.08 to 0.2, preferably from 0.1 to 0.15; (iv) performing synthesis, preferably continuing stirring the reaction mass at desired temperature during 30-60 min, preferably during 40-45 min; (v) stopping the reaction by adding phosphoric acid in the amount required for neutralization of catalyst, distilling-off, filtration or centrifugation, and, optionally - cleaning the product obtained by washing with distilled water and drying.
Electric machine comprising a stator, which has a stator core, which has a substantially cylindrical opening having a central axis and an inner diameter (D17i), and an outer diameter (D17a), wherein the opening receives a rotor, wherein the stator core has an axial length (L17a), and the stator core holds a stator winding, comprising the rotor, which has an axis of rotation, wherein the rotor has an axial end side, on which a fan with fan blades is arranged, which fan is connected in rotationally fixed fashion to the rotor, wherein the rotor has an electromagnetically excitable path, which has a pole core adjoined by, at both rotationally axial ends (80, 82), in each case one pole plate (22, 23), wherein claw poles which have a north polarity emanate from one pole plate and claw poles which have a south polarity emanate from the other pole plate, wherein the claw poles (24, 25) alternate according to north polarity and south polarity over the circumference of the rotor, and the electromagnetic path has a rotationally axial length between two mutually remote sides (69, 90) of the pole plates (22, 23), characterized in that the ratio of the axial length (L17a) of the stator core to the rotationally axial length of the electromagnetic path of the rotor between 0.68 and 1.0, wherein the pole core has a diameter and a rotationally axial length, and a ratio of the rotationally axial length of the pole core to the diameter of the pole core is between 0.21 and 0.36, and wherein the ratio of the inner diameter (D17i) of the stator core to the outer diameter (D17a) of the stator core is greater than 0.788 and less than 0.854.
A foldable car seat adapted to connect to a vehicle seat, the foldable car seat comprising a base frame, a sliding frame slidably attached to an inside of the base frame and having an adapter securely attached to a free end of the sliding frame to adapt to the vehicle seat so that the base frame is able to move relative to the sliding frame, wherein a locking mechanism is provided to the sliding frame to limit extent of the sliding frame movement as well as to position location of the sliding frame relative to the base frame, characterized by a back frame which is foldably connected to the base frame; the back frame consists of a lower support frame foldably connected to free ends of the base frame through a first folding device to allow the lower support frame to fold relative to the base frame and an upper support frame foldably connected to free ends of the lower support frame through a second folding device to allow the upper support frame to fold relative to the lower support frame; wherein the base frame further comprises a pair of horizontally located first side plates each having at least one bore defined through a side face thereof, and the sliding frame has a pair of sliders respectively and slidably attached to a side face of each of the horizontally located first side plates and having at least one stop formed on a side face thereof and movably received in the at least one bore of the first side plates to limit movement extent of the sliders.
A cell comprising an NADP nanosensor, said NADP nanosensor comprising i) a nucleic acid sequence capable of binding to a regulator, wherein the oxidation state of said regulator is a function of NADP availability; ii) a promoter sequence downstream from the nucleic acid sequence i), to which promoter sequence an RNA polymerase is able to bind, wherein the affinity of said RNA polymerase for the promoter sequence is influenced by the oxidation state of the regulator; iii) a nucleic acid sequence coding for an auto-fluorescent protein, which nucleic acid sequence is under the control of the promoter sequence ii), wherein the nucleic acid sequence i) is the SoxR-binding sequence, the regulator is the Sox regulator (SoxR), and the promoter sequence is the soxS promoter sequence, and wherein the cell furthermore comprises a plasmid harbouring an optionally mutated gene coding for an NADP -dependent enzyme. i) a nucleic acid sequence capable of binding to a regulator, wherein the oxidation state of said regulator is a function of NADP availability; ii) a promoter sequence downstream from the nucleic acid sequence i), to which promoter sequence an RNA polymerase is able to bind, wherein the affinity of said RNA polymerase for the promoter sequence is influenced by the oxidation state of the regulator; iii) a nucleic acid sequence coding for an auto-fluorescent protein, which nucleic acid sequence is under the control of the promoter sequence ii),
An elevator with an elevator drive that includes a drive wheel, a drive carrier for holding the elevator drive in a predetermined position, and at least one hoisting cable, as well as a cabin guided along guide rails, characterized in that the drive carrier has a one-piece full-ring shell whose inner circumferential surface precisely accommodates the housing of the elevator drive at least in the area of its contact surface with the full-ring shell,, preferably designed as a flat, circumferentially at least substantially closed smooth tube, thereby holding the elevator drive in its intended working position even under the loads occurring during operation.
A process for preparing a hydrosol of one or more metal oxides, comprising: i) Preparing a metal alkoxide solution of one or more metal alkoxides in an alcohol miscible with water without phase separation; ii) Providing an aqueous solvent having a pH of from pH 0 to pH 7; iii)Mixing the metal alkoxide solution of step i) with the aqueous solvent of step ii) in a volume or weight proportion to form a single-phase aqueous sol colloid (hydrosol) of hydrated metal oxide; with the proviso that the hydrosol does not comprise non-ionic block polymer surfactant. i) Preparing a metal alkoxide solution of one or more metal alkoxides in an alcohol miscible with water without phase separation; ii) Providing an aqueous solvent having a pH of from pH 0 to pH 7; iii)Mixing the metal alkoxide solution of step i) with the aqueous solvent of step ii) in a volume or weight proportion to form a single-phase aqueous sol colloid (hydrosol) of hydrated metal oxide;
A method for preparing high-density ZnO nanodots by atomic layer deposition, the method comprising growing high density ZnO nanodots, by alternately pulsing inert gas diluted gaseous diethyl zinc (DEZn) and H 2 O 2 vapor as reactive precursors into an ALD reaction chamber, and introducing inert gas as a purge gas during the interval between said two precursor pulse; wherein said inert gas diluted gaseous DEZn is obtained by injecting saturated vapor of DEZn and a certain flow rate of inert gas into an ALD gas cylinder, respectively, and controlling the concentration of gaseous DEZn by adjusting the pulse times of DEZn and the inert gas; wherein the flow rate of the inert gas used for diluting DEZn is 200~600sccm.
A light field display apparatus comprising: a plurality of projection cells, configured to generate respective light beams, wherein a cell of the plurality of projection cells comprises: an addressable array of light-emitting elements, configured to selectively emit light from one of the light-emitting elements; a collimating lens along an optical path from the light-emitting elements to an exterior of the display apparatus, configured to generate a light beam having a focus depth at a focal length of the lens, the focus depth being associated with a beam waist of the light beam; and a phase-modifying optical element along the optical path, configured to extend the beam waist along a propagation path of the light beam by modifying the phase of the emitted light, the extended beam waist being associated with a range of focus depth values. an addressable array of light-emitting elements, configured to selectively emit light from one of the light-emitting elements; a collimating lens along an optical path from the light-emitting elements to an exterior of the display apparatus, configured to generate a light beam having a focus depth at a focal length of the lens, the focus depth being associated with a beam waist of the light beam; and a phase-modifying optical element along the optical path, configured to extend the beam waist along a propagation path of the light beam by modifying the phase of the emitted light, the extended beam waist being associated with a range of focus depth values.
A method for the activation of a windscreen wiper motor, in which the windscreen wiper motor is connected via a drive shaft at least indirectly with at least one wiper blade (11, 12), which moves the at least one wiper blade (11, 12) to and fro between two reversal points (UP, OP) of a wiping field in differing movement direction, wherein the rotation speed and the rotation direction of the windscreen wiper motor or respectively the speed (v) of the at least one wiper blade (11, 12) is detected by means of a sensor device and is supplied to a control device as an input value, and wherein the windscreen wiper motor before reaching the respective reversal point (UP, OP) is switched off at a switch-off time, whereupon the drive shaft of the windscreen wiper motor continues to rotate further by a castor angle (a) up to its standstill, and the at least one wiper blade (11, 12) continues to move further by a trailing distance, characterized in that the actual speed (v ist) of the at least one wiper blade (11, 12) is compared at the switch-off time with a nominal speed (v soll), and that with a difference between the actual value from the nominal value, the windscreen wiper motor is operated further for a period of time (ΔT) which is defined in the control device.
A semiconductor device, comprising: a laminated substrate formed by laminating a plurality of semiconductor substrates (201, 203), the laminated substrate including: a first semiconductor substrate including a first hole such that the first hole does not pass through the first semiconductor substrate; a via plug formed to pass through the first semiconductor substrate at an outside of the first hole; a second semiconductor substrate including a second hole such that the second hole passes through the second semiconductor substrate, wherein the opening area of the second hole in the second semiconductor substrate is large; the opening area of the first hole in the first semiconductor substrate is small; and the second hole exposes the first hole and the via plug, the second semiconductor substrate being formed on the first semiconductor substrate via a junction layer being a silicon oxide film; insulating films formed on the first semiconductor substrate and the second semiconductor substrate, respectively; wherein a concave part, having a step shape, is formed in which the second hole passing through the second semiconductor substrate communicates with the first hole formed in the first semiconductor substrate; and wherein a semiconductor element (211, 213) is mounted in the concave part and connected to the via plug. a first semiconductor substrate including a first hole such that the first hole does not pass through the first semiconductor substrate; a via plug formed to pass through the first semiconductor substrate at an outside of the first hole; a second semiconductor substrate including a second hole such that the second hole passes through the second semiconductor substrate, wherein the opening area of the second hole in the second semiconductor substrate is large; the opening area of the first hole in the first semiconductor substrate is small; and the second hole exposes the first hole and the via plug, the second semiconductor substrate being formed on the first semiconductor substrate via a junction layer being a silicon oxide film; insulating films formed on the first semiconductor substrate and the second semiconductor substrate, respectively; wherein a concave part, having a step shape, is formed in which the second hole passing through the second semiconductor substrate communicates with the first hole formed in the first semiconductor substrate; and wherein a semiconductor element (211, 213) is mounted in the concave part and connected to the via plug.
Arrangement of a framed photovoltaic module (PV-module) on a support, having a frame segment, which encloses a PV-module and having an upper, a lower and a lateral outside (4, 5, 6), wherein the upper and the lower outer wall (4, 5) facing each other and are interconnected by means of the lateral outer wall, having a support wall of a module carrier, wherein the frame segment is supported by means of the lower outer wall on an upper surface of the support wall, having a holding body, which is integrally formed and shows a first engagement end and a second engagement end, wherein the holding body engages by means of its first engagement end at an upper contact point on the upper outer wall and holds the frame segment against the support wall, and the holding body engages by means of its second engagement end at a lower contact point at a bottom side, which is turned away from the upper surface of the support wall, and an imaginary straight connection between the first contact point and the second contact point, which is free from an intersection with the turned away outer side of the lateral outer wall of the PV-module, characterized in that the holding body is formed flexible and elastic and that the distance between the first engagement end and the second engagement end in an unclamped state of the holding body is shorter than the distance between the upper contact point and the lower contact point, so that the frame segment is clamped together with the module carrier by means of the holding body.
A high voltage high current vacuum integrated circuit, comprising a common vacuum enclosure for containing a common vacuum environment, the common vacuum enclosure containing: a) vacuum-sealed electrically-insulated feedthroughs passing electrical conductors (202, 204, 206, 222, 224, 226, 232, 236) from outside the vacuum enclosure to inside the enclosure while electrically insulating the electrical conductors from the vacuum enclosure and maintaining the vacuum seal; b) internal electrical insulation ( 267, 270, 290) for preventing internal electrical short circuits; c) at least two cold-cathode field emission electron tubes (200, 210, 220, 230), whose respective vacuum environments are part of said common vacuum environment; said electron tubes being configured to operate at high voltage and high current and being interconnected with each other to implement a circuit function, wherein the high voltage is greater than 400 Volts AC and the high current is greater than 50 Amps; and d) one or more internal magnetic shields (260, 262, 264 and 266) made of magnetic shielding metal for preventing deleterious interference within said electron tubes (200, 210, 220, 230) from magnetic fields produced by one or more of said electron tubes (200, 210, 220, 230); e) at least one internal vacuum pumping means; and f) at least one exhaust tubulation for evacuating said vacuum enclosure and subsequently sealing and separating said vacuum enclosure from at least one external vacuum pump. a) vacuum-sealed electrically-insulated feedthroughs passing electrical conductors (202, 204, 206, 222, 224, 226, 232, 236) from outside the vacuum enclosure to inside the enclosure while electrically insulating the electrical conductors from the vacuum enclosure and maintaining the vacuum seal; b) internal electrical insulation ( 267, 270, 290) for preventing internal electrical short circuits; c) at least two cold-cathode field emission electron tubes (200, 210, 220, 230), whose respective vacuum environments are part of said common vacuum environment; said electron tubes being configured to operate at high voltage and high current and being interconnected with each other to implement a circuit function, wherein the high voltage is greater than 400 Volts AC and the high current is greater than 50 Amps; and d) one or more internal magnetic shields (260, 262, 264 and 266) made of magnetic shielding metal for preventing deleterious interference within said electron tubes (200, 210, 220, 230) from magnetic fields produced by one or more of said electron tubes (200, 210, 220, 230); e) at least one internal vacuum pumping means; and f) at least one exhaust tubulation for evacuating said vacuum enclosure and subsequently sealing and separating said vacuum enclosure from at least one external vacuum pump.