mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling full-beam functions of a motor vehicle, comprising an actuating element for controlling the full-beam functions, a) wherein the actuating element is able to be brought, starting from its neutral position, a1) in a first actuating direction into two function positions (F1, F2) arranged one behind the other and returns to its neutral position when it is released, wherein a first actuating force is required to reach the first function position and a pressure point must be overcome by an actuating force that is higher than the first actuating force to reach the second function position; and a2) in a second actuating direction into a third function position and returns to its neutral position when it is released; b) wherein the full-beam functions are controlled, in dependence on an actuation of the actuating element, such b1) that a light flasher function is activated in the first function position, b2) that a permanent full-beam function is able to be switched on and off in the second function position, and b3) that a full-beam automatic function is able to be activated and deactivated in the third function position. a) wherein the actuating element is able to be brought, starting from its neutral position, a1) in a first actuating direction into two function positions (F1, F2) arranged one behind the other and returns to its neutral position when it is released, wherein a first actuating force is required to reach the first function position and a pressure point must be overcome by an actuating force that is higher than the first actuating force to reach the second function position; and a2) in a second actuating direction into a third function position and returns to its neutral position when it is released; a1) in a first actuating direction into two function positions (F1, F2) arranged one behind the other and returns to its neutral position when it is released, wherein a first actuating force is required to reach the first function position and a pressure point must be overcome by an actuating force that is higher than the first actuating force to reach the second function position; and a2) in a second actuating direction into a third function position and returns to its neutral position when it is released; b) wherein the full-beam functions are controlled, in dependence on an actuation of the actuating element, such b1) that a light flasher function is activated in the first function position, b2) that a permanent full-beam function is able to be switched on and off in the second function position, and b3) that a full-beam automatic function is able to be activated and deactivated in the third function position. b1) that a light flasher function is activated in the first function position, b2) that a permanent full-beam function is able to be switched on and off in the second function position, and b3) that a full-beam automatic function is able to be activated and deactivated in the third function position.
An evacuation chair for evacuating a person down stairs and along level ground, the evacuation chair being for operation by an operator, the evacuation chair having: a frame and at least one front wheel (134, 136) and at least two rear wheels (140, 142); two rail assemblies (150, 152) attached with respect to the frame, each rail assembly (150, 152) extending rearwardly and upwardly from a forward end of the rail assembly to a rearward end thereof, the rail assemblies (150, 152) being provided for guiding the movement of the evacuation chair on stairs; wherein the chair has a folded configuration and an unfolded configuration and the rail assemblies (150, 152) are attached to the frame so that the rail assemblies (150, 152) are deployed for operation due to the chair being moved between the folded configuration and the unfolded configuration, and wherein there is provided a clear space extending throughout a legroom region between the rail assemblies (150, 152) from the rearward ends thereof to at least halfway towards the forward ends thereof, to accommodate the movement of the legs of the operator, characterised in that the at least two rear wheels (140, 142) are attached and rotatable with respect to the frame to allow the chair to be wheeled along level ground. a frame and at least one front wheel (134, 136) and at least two rear wheels (140, 142); two rail assemblies (150, 152) attached with respect to the frame, each rail assembly (150, 152) extending rearwardly and upwardly from a forward end of the rail assembly to a rearward end thereof, the rail assemblies (150, 152) being provided for guiding the movement of the evacuation chair on stairs;
A lipid extract from Passiflora seeds, Passiflora incarnata and/or Passiflora edulis, preferably P. edulis, characterized in that said lipid extract is oil of Passiflora seeds concentrated in its unsaponifiable fraction containing from 3.0 weight % to 100 weight % of unsaponifiables relative to the total weight of the extract.
A vehicle seat comprising: a main frame; a seat cushion rotatably supported by the main frame; wherein a first lock mechanism configured to lock the seat cushion in accordance with a steering operation and to release the seat cushion when a steering wheel is in vicinity of a neutral position; and a second lock mechanism configured to enter into a lock ready state in which a retaining pin of the second lock mechanism abuts against a receiving tilted surface of a retaining block of the seat cushion to be ready to lock the seat cushion in accordance with a steering operation and to lock the seat cushion at the neutral position when the seat cushion is at the neutral position. a main frame; a seat cushion rotatably supported by the main frame; wherein a first lock mechanism configured to lock the seat cushion in accordance with a steering operation and to release the seat cushion when a steering wheel is in vicinity of a neutral position; and a second lock mechanism configured to enter into a lock ready state in which a retaining pin of the second lock mechanism abuts against a receiving tilted surface of a retaining block of the seat cushion to be ready to lock the seat cushion in accordance with a steering operation and to lock the seat cushion at the neutral position when the seat cushion is at the neutral position.
A vaccine composition for administration to a subject comprising: a plurality of particles, wherein each particle: is a nanometer-sized particle, is coupled with an antigen, and is fabricated with an aspect ratio of from 2:1 to 4:1, wherein the vaccine composition is engineered to trigger immunogenicity when administered to the subject, wherein the immunogenicity decreases with increased aspect ratio of said particle. a plurality of particles, wherein each particle: is a nanometer-sized particle, is coupled with an antigen, and is fabricated with an aspect ratio of from 2:1 to 4:1, is a nanometer-sized particle, is coupled with an antigen, and is fabricated with an aspect ratio of from 2:1 to 4:1, wherein the vaccine composition is engineered to trigger immunogenicity when administered to the subject, wherein the immunogenicity decreases with increased aspect ratio of said particle.
A transcutaneous analyte sensor assembly for measuring an analyte in a host, the assembly comprising: a housing comprising a base, wherein the housing is configured for mounting on a skin of a host; a contact subassembly; a sensor comprising a distal portion and a proximal portion, wherein the distal portion is adapted to be inserted through the skin of a host, and wherein the proximal portion is operably connected to the housing; and electronics configured for measuring an analyte in the host, wherein the electronics are associated with the housing, wherein the electronics are connected to the sensor via at least one electrical contact, and wherein the electrical contact is substantially sealed from moisture in an external environment by at least one sealing member; wherein the at least one contact is mounted on or in the contact subassembly which includes the sealing member, the at least one contact, the sensor, a contact holder configured to fit within the base and a hinge that allows the contact subassembly to pivot, articulate and/or hinge between a first position for insertion and a second position relative to the housing.
Control gear having a first shaft and a second shaft disposed parallel thereto, wherein shifting units (I, II, III, IV, V) are disposed on the first shaft and shifting units (A, B, C, D) are disposed on the second shaft; wherein the first shaft has at least two shifting units (I, II, III, IV, V) and the second shaft has at least three shifting units (A, B, C, D); wherein the shifting units are configured in such a manner that the shifting units (I, II, III, IV, V) of the first shaft have in each case two gear wheels on one coaxial shaft portion, and two shifting units (A, B, C, D) of the second shaft have in each case one gear wheel on one coaxial shaft portion; wherein a further shifting unit (A, B, C, D) of the second shaft has a number of gear wheels on coaxial shaft portions that correspond to the number of shifting units (I, II, III, IV, V) of the first shaft; wherein the shifting units (A, B, C, D) of the second shaft have a coaxial shaft portion (62a, 62b, 62c), a gear wheel (63a, 63b, 63c) which is in each case disposed on the coaxial shaft portion (62a, 62b, 62c), and in each case one shifting element by way of which the respective coaxial shaft portion (62a, 62b, 62c) can be coupled to the output shaft so that a torque can be directed from the first shaft to the second shaft, and directed through the further shifting unit of the second shaft back to the first shaft again, and from the latter by way of the second shaft to the drive. a first shaft and a second shaft disposed parallel thereto, wherein shifting units (I, II, III, IV, V) are disposed on the first shaft and shifting units (A, B, C, D) are disposed on the second shaft; wherein the first shaft has at least two shifting units (I, II, III, IV, V) and the second shaft has at least three shifting units (A, B, C, D); wherein the shifting units are configured in such a manner that the shifting units (I, II, III, IV, V) of the first shaft have in each case two gear wheels on one coaxial shaft portion, and two shifting units (A, B, C, D) of the second shaft have in each case one gear wheel on one coaxial shaft portion; wherein a further shifting unit (A, B, C, D) of the second shaft has a number of gear wheels on coaxial shaft portions that correspond to the number of shifting units (I, II, III, IV, V) of the first shaft; wherein the shifting units (A, B, C, D) of the second shaft have a coaxial shaft portion (62a, 62b, 62c), a gear wheel (63a, 63b, 63c) which is in each case disposed on the coaxial shaft portion (62a, 62b, 62c), and in each case one shifting element by way of which the respective coaxial shaft portion (62a, 62b, 62c) can be coupled to the output shaft so that a torque can be directed from the first shaft to the second shaft, and directed through the further shifting unit of the second shaft back to the first shaft again, and from the latter by way of the second shaft to the drive.
A method for determining locations of individual fluorescent dye molecules coupled to a structure in a sample comprising the method steps of - sequential illumination of an individual, spatially isolated fluorescent dye molecule by an intensity distribution of an excitation light comprising a local intensity minimum or by an intensity distribution of an excitation light and an intensity distribution of a fluorescence-preventing light comprising a local intensity minimum and substantially complementary to the intensity distribution of the excitation light at a sequence of different scan positions of the local intensity minimum for exciting the fluorescent dye molecule to emit fluorescence light; - detecting the number of fluorescence photons of the fluorescence light and assigning the number of fluorescence photons to the respective scan position at each step of the sequence; - determining the location of the fluorescent dye molecule from the set of associated numbers of fluorescence photons and scan positions with an accuracy below a dimension of a diffraction-limited volume in a spatial direction; characterized in that during the illumination of the sample the magnitude of a disturbance is determined and that a weighting factor is assigned to each element of the set of associated numbers of fluorescence photons and scan positions, the value of which is determined from the magnitude of the disturbance during the detection of the fluorescence photons at the respective scan position, and in that the elements of the set of assigned numbers of fluorescence photons and scan positions are taken into account in accordance with their weighting factor when determining the location of the fluorescent dye molecule. - sequential illumination of an individual, spatially isolated fluorescent dye molecule by an intensity distribution of an excitation light comprising a local intensity minimum or by an intensity distribution of an excitation light and an intensity distribution of a fluorescence-preventing light comprising a local intensity minimum and substantially complementary to the intensity distribution of the excitation light at a sequence of different scan positions of the local intensity minimum for exciting the fluorescent dye molecule to emit fluorescence light; - detecting the number of fluorescence photons of the fluorescence light and assigning the number of fluorescence photons to the respective scan position at each step of the sequence; - determining the location of the fluorescent dye molecule from the set of associated numbers of fluorescence photons and scan positions with an accuracy below a dimension of a diffraction-limited volume in a spatial direction;
An apparatus for tempering a bent glass sheet, comprising a means of conveying the sheet along a predetermined path through the apparatus, and a pair of blastheads (20, 21) for quenching the sheet with jets of quench gas, the blastheads comprising upper and lower blastheads arranged in opposed relationship above and below the predetermined path, each blasthead comprising a plurality of spaced elongate plenums for supplying quench gas to an array of quench nozzles (23, 92) from which the jets of quench gas issue, the quench nozzles of each plenum being mutually inclined to provide diverging jets of quench gas, wherein the plenums extend transversely to the direction of conveyance of the bent glass sheet and the array of quench nozzles is curved in at least one direction, characterised in that the length of the quench nozzles exceeds their diameter.
A control method for dispensing a hot fluid in a fluid dispensing device comprising at least: - a power supply source; - a source of fluid to be heated; - a feed unit configured for picking up the fluid to be heated; - a boiler or heat exchanger; - a dispensing device configured for dispensing the hot fluid; - a data control and processing system, wherein the method comprises the following steps actuated by the data control and processing system: - a measurement of inlet parameters comprising at least an inlet power value and an inlet temperature of the fluid towards the boiler or heat exchanger; - a cyclical calculation of a quantity of heat generated which must supply the boiler or heat exchanger and/or a quantity of fluid dispensed; - consequent adjustment of the value of heat generated by the boiler or heat exchanger and/or the quantity of fluid dispensed, as a function of the measurements of the above-mentioned inlet parameters and of a wanted or desired value of outlet temperature of the fluid; - the measurement, cyclical calculation and adjustment steps being performed simultaneously and in real time during a step of dispensing fluid by the dispensing device. - a power supply source; - a source of fluid to be heated; - a feed unit configured for picking up the fluid to be heated; - a boiler or heat exchanger; - a dispensing device configured for dispensing the hot fluid; - a data control and processing system, wherein the method comprises the following steps actuated by the data control and processing system: - a measurement of inlet parameters comprising at least an inlet power value and an inlet temperature of the fluid towards the boiler or heat exchanger; - a cyclical calculation of a quantity of heat generated which must supply the boiler or heat exchanger and/or a quantity of fluid dispensed; - consequent adjustment of the value of heat generated by the boiler or heat exchanger and/or the quantity of fluid dispensed, as a function of the measurements of the above-mentioned inlet parameters and of a wanted or desired value of outlet temperature of the fluid; - the measurement, cyclical calculation and adjustment steps being performed simultaneously and in real time during a step of dispensing fluid by the dispensing device. - a measurement of inlet parameters comprising at least an inlet power value and an inlet temperature of the fluid towards the boiler or heat exchanger; - a cyclical calculation of a quantity of heat generated which must supply the boiler or heat exchanger and/or a quantity of fluid dispensed; - consequent adjustment of the value of heat generated by the boiler or heat exchanger and/or the quantity of fluid dispensed, as a function of the measurements of the above-mentioned inlet parameters and of a wanted or desired value of outlet temperature of the fluid; - the measurement, cyclical calculation and adjustment steps being performed simultaneously and in real time during a step of dispensing fluid by the dispensing device.
A staple cartridge, for use with a surgical stapling apparatus, the staple cartridge comprising: a cartridge body defining a plurality of staple retaining slots, the cartridge body including a tissue contacting surface, having at least one recessed groove, defined therein; a staple, disposed within each staple retaining slot of the cartridge body; a surgical buttress, configured and dimensioned to substantially overlie at least a portion of the staple retaining slots of the cartridge body; and at least one suture, disposed within the at least one recessed groove of the cartridge body and configured to retain the surgical buttress atop the tissue contacting surface, characterised in that the at least one recessed groove, of the staple cartridge extends from a first outer edge to a second outer edge of the staple cartridge thereby passing transversely across the tissue contacting surface of the staple cartridge. a cartridge body defining a plurality of staple retaining slots, the cartridge body including a tissue contacting surface, having at least one recessed groove, defined therein; a staple, disposed within each staple retaining slot of the cartridge body; a surgical buttress, configured and dimensioned to substantially overlie at least a portion of the staple retaining slots of the cartridge body; and at least one suture, disposed within the at least one recessed groove of the cartridge body and configured to retain the surgical buttress atop the tissue contacting surface, characterised in that the at least one recessed groove, of the staple cartridge extends from a first outer edge to a second outer edge of the staple cartridge thereby passing transversely across the tissue contacting surface of the staple cartridge.
A power tool comprising: a motor (46, 1046, 2046, 3046) having a motor shaft that rotates about a motor axis in a first rotational direction; a fan assembly (86, 1086, 2086, 3086) attached to the motor shaft for rotation in the first rotational direction, the fan assembly including a fan body; a bearing having a race that is rotatably affixed to the fan body, the race being freely rotatable relative to the motor shaft in the first rotational direction, and fixed against rotation relative to the motor shaft in a second rotational direction opposite the first rotational direction; and a flywheel rotatably affixed to the fan body, the flywheel having a central portion that defines a central bore; characterized in that the race is received into the central bore and rotatably affixed to the flywheel. a motor (46, 1046, 2046, 3046) having a motor shaft that rotates about a motor axis in a first rotational direction; a fan assembly (86, 1086, 2086, 3086) attached to the motor shaft for rotation in the first rotational direction, the fan assembly including a fan body; a bearing having a race that is rotatably affixed to the fan body, the race being freely rotatable relative to the motor shaft in the first rotational direction, and fixed against rotation relative to the motor shaft in a second rotational direction opposite the first rotational direction; and a flywheel rotatably affixed to the fan body, the flywheel having a central portion that defines a central bore; characterized in that the race is received into the central bore and rotatably affixed to the flywheel. a fan body; a bearing having a race that is rotatably affixed to the fan body, the race being freely rotatable relative to the motor shaft in the first rotational direction, and fixed against rotation relative to the motor shaft in a second rotational direction opposite the first rotational direction; and a flywheel rotatably affixed to the fan body, the flywheel having a central portion that defines a central bore; characterized in that the race is received into the central bore and rotatably affixed to the flywheel.
A system for printing an image on a surface, comprising: a robot having at least one arm; a printhead mounted to the arm and being movable by the arm over a surface along a rastering path while printing an image slice on the surface, wherein the printhead preferably is an inkjet printhead; and the printhead being configured to print the image slice with an image gradient band along at least one of opposing side edges of the image gradient band wherein an image intensity within the image gradient band decreases from an inner portion of the image gradient band toward the side edge, wherein the robot is configured to electronically offset groups of nozzles actively ejecting droplets in a manner such that a side edge of the new image slice is aligned with the side edge of the existing image slice. a robot having at least one arm; a printhead mounted to the arm and being movable by the arm over a surface along a rastering path while printing an image slice on the surface, wherein the printhead preferably is an inkjet printhead; and the printhead being configured to print the image slice with an image gradient band along at least one of opposing side edges of the image gradient band wherein an image intensity within the image gradient band decreases from an inner portion of the image gradient band toward the side edge, wherein the robot is configured to electronically offset groups of nozzles actively ejecting droplets in a manner such that a side edge of the new image slice is aligned with the side edge of the existing image slice.
Cooling system for motor vehicles intended for cooling a vehicle interior and/or a vehicle aggregate, comprising at least one collecting container for collecting condensed water formed on an aggregate, a drain line for conducting the collected condensed water and a heat exchanger through which the condensed water can flow, characterized in that the heat exchanger is designed as an air-water heat exchanger in which the condensed water can receive heat from an air flow.