mhurhangee/ep-ind-claims huggingface dataset:
Traction drive for an electrically driven vehicle, having left and right vehicle wheels (1, 2) which are arranged on a common axle line and having separate drive units (11, 12) for the left and the right vehicle wheel, wherein each drive unit (11, 12) - is connected by means of a propellor shaft which is provided with at least one cardan element (20A, 20B) to the wheel hub of the respective vehicle wheel (1, 2), - on a common axle (A1, A2) comprises at least one electric motor and an output element for connecting to the propellor shaft, characterised in that the two drive units (11, 12) are arranged in the longitudinal vehicle direction one behind the other close to the vehicle centre line or on the vehicle centre line, wherein the drive units (11, 12) have a forward and backward offset with respect to the axle line of the two vehicle wheels and the axles of the drive units are arranged inclined at an angle relative to the horizontal and at a horizontal angle with respect to the transverse vehicle direction. - is connected by means of a propellor shaft which is provided with at least one cardan element (20A, 20B) to the wheel hub of the respective vehicle wheel (1, 2), - on a common axle (A1, A2) comprises at least one electric motor and an output element for connecting to the propellor shaft,
A pesticidal mixture comprising an effective amount of sabadilla alkaloids and Bacillus thuringiensis, wherein Bacillus thuringiensis consists of a subspecies selected from the group consisting of Bacillus thuringiensis aizawai, Bacillus thuringiensis kurstaki, and combinations thereof, and wherein the ratio of sabadilla alkaloids to Bacillus thuringiensis is from about 1:1 to about 1:100.
A pharmaceutical composition comprising a solution of a fluoroquinolone and a divalent or trivalent cation, wherein the fluoroquinolone is levofloxacin or ofloxacin.
A method for transmitting control signaling, the method comprising: receiving, by User Equipment, UE, repeat configuration signaling sent by a base station, the repeat configuration signaling being configured to instruct the UE to receive control signaling being repeated; determining (S301, S503), by the UE, a location of a resource of at least one control channel for repeating the control signaling, the at least one control channel being located in a control region; and detecting (S302, S504), by the UE according to the location of the resource, the control signaling transmitted by the base station using the at least one control channel, comprising: acquiring, by the UE based on indication information in the control signaling first transmitted, a repeat mode of repeating the control signaling, the indication information being located in an information domain in the control signaling, the information domain being fixed or configurable, and the information domain being of a fixed or configurable length. receiving, by User Equipment, UE, repeat configuration signaling sent by a base station, the repeat configuration signaling being configured to instruct the UE to receive control signaling being repeated; determining (S301, S503), by the UE, a location of a resource of at least one control channel for repeating the control signaling, the at least one control channel being located in a control region; and detecting (S302, S504), by the UE according to the location of the resource, the control signaling transmitted by the base station using the at least one control channel, comprising: acquiring, by the UE based on indication information in the control signaling first transmitted, a repeat mode of repeating the control signaling, the indication information being located in an information domain in the control signaling, the information domain being fixed or configurable, and the information domain being of a fixed or configurable length.
A gas safety device comprising: a flow path for flowing gas; a flow rate measurement unit (15, 4) for measuring a flow rate of the gas flowing through the flow path; a first absolute pressure sensor disposed inside the flow path to measure an absolute pressure of the gas; a second absolute pressure sensor disposed outside the flow path to measure an absolute pressure of atmospheric pressure; a gas pressure determination unit configured to measure a change in gas supply pressure from the absolute pressure of the gas and the absolute pressure of the atmospheric pressure measured by the first absolute pressure sensor and the second absolute pressure sensor, respectively; a shutoff valve configured to shut off the flow path; and a control circuit configured to control the flow rate measurement unit and to cause the shutoff valve to shut off the flow path when determining abnormality from the flow rate of the gas measured by the flow rate measurement unit or the change in gas supply pressure measured by the gas pressure determination unit. a flow path for flowing gas; a flow rate measurement unit (15, 4) for measuring a flow rate of the gas flowing through the flow path; a first absolute pressure sensor disposed inside the flow path to measure an absolute pressure of the gas; a second absolute pressure sensor disposed outside the flow path to measure an absolute pressure of atmospheric pressure; a gas pressure determination unit configured to measure a change in gas supply pressure from the absolute pressure of the gas and the absolute pressure of the atmospheric pressure measured by the first absolute pressure sensor and the second absolute pressure sensor, respectively; a shutoff valve configured to shut off the flow path; and a control circuit configured to control the flow rate measurement unit and to cause the shutoff valve to shut off the flow path when determining abnormality from the flow rate of the gas measured by the flow rate measurement unit or the change in gas supply pressure measured by the gas pressure determination unit.
A luminescence scanner apparatus for scanning a luminescent sample, the apparatus comprising: a sample bed (303; 403); a detector bar (204; 304; 404) configured to move with respect to the sample bed, the detector bar having one or more image sensor arrays, each images sensor array having a plurality of pixel elements; and a memory device and a processor operatively coupled with the detector bar, the memory device having instructions for programming the processor to perform operations for: moving the detector bar with respect to the sample bed in a first pass; taking a first set of pixel readings during the first pass, each pixel reading of the first set occurring at a respective x, y position; moving the detector bar with respect to the sample bed in a second pass, the second pass being in an opposite direction from the first pass; collecting a second set of pixel readings during the second pass, each pixel reading of the second set occurring at a respective x, y position; and summing, using the processor, respective x, y position pixel readings between the first and second sets of pixel readings to construct an image. a sample bed (303; 403); a detector bar (204; 304; 404) configured to move with respect to the sample bed, the detector bar having one or more image sensor arrays, each images sensor array having a plurality of pixel elements; and a memory device and a processor operatively coupled with the detector bar, the memory device having instructions for programming the processor to perform operations for: moving the detector bar with respect to the sample bed in a first pass; taking a first set of pixel readings during the first pass, each pixel reading of the first set occurring at a respective x, y position; moving the detector bar with respect to the sample bed in a second pass, the second pass being in an opposite direction from the first pass; collecting a second set of pixel readings during the second pass, each pixel reading of the second set occurring at a respective x, y position; and summing, using the processor, respective x, y position pixel readings between the first and second sets of pixel readings to construct an image. moving the detector bar with respect to the sample bed in a first pass; taking a first set of pixel readings during the first pass, each pixel reading of the first set occurring at a respective x, y position; moving the detector bar with respect to the sample bed in a second pass, the second pass being in an opposite direction from the first pass; collecting a second set of pixel readings during the second pass, each pixel reading of the second set occurring at a respective x, y position; and summing, using the processor, respective x, y position pixel readings between the first and second sets of pixel readings to construct an image.
A stereo imaging system, in particular a medical imaging system, comprising: - an observation instrument (10, 50, 110) comprising an image acquisition unit (30, 70, 130) for detecting first image data and second image data, which can be combined for stereo observation, - at least one position sensor (144, 146) for detecting an orientation, in particular a rotation orientation, of the instrument (10, 50, 110) in relation to a position reference, and - a control device that is operable in a first representation mode and a second representation mode, depending on the orientation of the instrument (10, 50, 110), wherein the control device is configured for outputting an image signal, which, in the first representation mode, comprises a stereo signal based on the first image data and the second image data, and, in the second representation mode, comprises a mono signal based on the first image data or the second image data, wherein the control device is adapted to erect images that are output with the image signal in the second representation mode in relation to a reference horizon, depending on the orientation. - an observation instrument (10, 50, 110) comprising an image acquisition unit (30, 70, 130) for detecting first image data and second image data, which can be combined for stereo observation, - at least one position sensor (144, 146) for detecting an orientation, in particular a rotation orientation, of the instrument (10, 50, 110) in relation to a position reference, and - a control device that is operable in a first representation mode and a second representation mode, depending on the orientation of the instrument (10, 50, 110), wherein the control device is configured for outputting an image signal, which, in the first representation mode, comprises a stereo signal based on the first image data and the second image data, and, in the second representation mode, comprises a mono signal based on the first image data or the second image data, wherein the control device is adapted to erect images that are output with the image signal in the second representation mode in relation to a reference horizon, depending on the orientation.
A composition that comprises methyl jasmonate (MeJA), a polysiloxane polyether, water and a C2-C4 alcohol characterised in that: - methyl jasmonate represents between 0.0015% and 0.0028% of the total volume thereof; - polysiloxane polyether represents between 0.068% and 0.1272% of the total volume thereof; - C2-C4 alcohol represents between 0.15% and 0.28% of the total volume thereof; and - water represents the rest of the volume of the composition. - methyl jasmonate represents between 0.0015% and 0.0028% of the total volume thereof; - polysiloxane polyether represents between 0.068% and 0.1272% of the total volume thereof; - C2-C4 alcohol represents between 0.15% and 0.28% of the total volume thereof; and - water represents the rest of the volume of the composition.
A method performed by a computer device for use in material processing of a two dimensional sheet like material, the method comprising: obtaining (101; 810) information related to a desired design of a three dimensional object, obtaining (102'; 820) information related to material characteristics of the two dimensional sheet like material, defining (102"; 830) a primary surface and a secondary surface of the desired design of the three dimensional object, and characterized by defining (102′′′; 840) a geometrical relationship between said primary surface and secondary surface, wherein the secondary surface is a reflection of the primary surface in a two dimensional plane, and wherein when said primary surface is concave said secondary surface is convex, or when said primary surface is convex said secondary surface is concave; and providing, or otherwise creating, a digital instruction for a fully developed spreading and subsequent folding of a two dimensional sheet into the obtained desired design of the three dimensional object, wherein said digital instruction is based on the defined primary and secondary surfaces, respectively, and said obtained material characteristics. obtaining (101; 810) information related to a desired design of a three dimensional object, obtaining (102'; 820) information related to material characteristics of the two dimensional sheet like material, defining (102"; 830) a primary surface and a secondary surface of the desired design of the three dimensional object, and characterized by defining (102′′′; 840) a geometrical relationship between said primary surface and secondary surface, wherein the secondary surface is a reflection of the primary surface in a two dimensional plane, and wherein when said primary surface is concave said secondary surface is convex, or when said primary surface is convex said secondary surface is concave; and the secondary surface is a reflection of the primary surface in a two dimensional plane, and wherein when said primary surface is concave said secondary surface is convex, or when said primary surface is convex said secondary surface is concave; and providing, or otherwise creating, a digital instruction for a fully developed spreading and subsequent folding of a two dimensional sheet into the obtained desired design of the three dimensional object, wherein said digital instruction is based on the defined primary and secondary surfaces, respectively, and said obtained material characteristics.
A resonance-type receiving antenna comprising a circular-ring-shaped, magnetic core having one or multiple gaps opening said circular-ring-shaped, magnetic core, first and second coils (2a, 2b) wound around said circular-ring-shaped, magnetic core, and capacitors each connected in parallel to both ends of the respective coil (2a, 2b); whereby an angle (θa) between a first straight line extending from a geographical center of said circular-ring-shaped, magnetic core to a center of one gap and a second straight line (R2b) extending from said geographical center to a center of said first coil is in a range of 10° to 90°, and an angle between said first straight line and a third straight line (R2b) extending from said geographical center to a center of said second coil being in a range of -10° to -90°.
A method for generating synthesis gas comprising the following steps: decomposing a hydrocarbon containing fluid into carbon and hydrogen by means of introduction of energy, the energy at least partially being provided by heat, wherein the carbon and the hydrogen have a temperature of at least 200°C after the decomposing step; bringing water into contact with at least a portion of the carbon generated by the decomposing step at a temperature between 800 and 1700°C, wherein upon bringing the carbon into contact with water, the carbon obtained by the decomposing step has cooled down by no more than 50% in °C with respect to its temperature after the decomposing step; transforming at least a portion of the water and the carbon obtained by the decomposing step into synthesis gas; wherein the carbon obtained by the decomposing step and the hydrogen obtained by the decomposing step are jointly brought into contact with the water. decomposing a hydrocarbon containing fluid into carbon and hydrogen by means of introduction of energy, the energy at least partially being provided by heat, wherein the carbon and the hydrogen have a temperature of at least 200°C after the decomposing step; bringing water into contact with at least a portion of the carbon generated by the decomposing step at a temperature between 800 and 1700°C, wherein upon bringing the carbon into contact with water, the carbon obtained by the decomposing step has cooled down by no more than 50% in °C with respect to its temperature after the decomposing step; transforming at least a portion of the water and the carbon obtained by the decomposing step into synthesis gas; wherein the carbon obtained by the decomposing step and the hydrogen obtained by the decomposing step are jointly brought into contact with the water.
A motor vehicle steering wheel, comprising a device for removably mounting an airbag module on the steering wheel, - the mounting device comprising at least two hooks connected to one of the airbag module or the steering wheel, the hooks cooperating with insertion means located on the other of the airbag module or the steering wheel, and a resilient ring for forming means for holding the hooks on the other of the airbag module or the steering wheel in zones of interaction with the hooks, the resilient ring being held in position by locking means on the other of the airbag module or the steering wheel, the resilient ring comprising: - first portions extending in the interaction zones to form the means for holding the hooks, - second portions located between the first portions of the resilient ring, - the device for removable mounting further comprising guide elements, - the guide elements forming two separate dismantling paths for guiding a tool for dismantling the device for removably mounting the airbag module,characterized in that - the steering wheel comprises a single dismantling opening for inserting the dismantling tool along the two dismantling paths, - the opening and the guide elements being arranged such that the movement of the dismantling tool through the opening along each of the two dismantling paths and on the second portions causes the movement of the first portions of the resilient ring outside the zones of interaction with the hooks in order to free the hooks from the other of the airbag module or the steering wheel during the movement of the dismantling tool. - the mounting device comprising at least two hooks connected to one of the airbag module or the steering wheel, the hooks cooperating with insertion means located on the other of the airbag module or the steering wheel, and a resilient ring for forming means for holding the hooks on the other of the airbag module or the steering wheel in zones of interaction with the hooks, - first portions extending in the interaction zones to form the means for holding the hooks, - second portions located between the first portions of the resilient ring, - the device for removable mounting further comprising guide elements, - the guide elements forming two separate dismantling paths for guiding a tool for dismantling the device for removably mounting the airbag module,characterized in that - the steering wheel comprises a single dismantling opening for inserting the dismantling tool along the two dismantling paths, - the opening and the guide elements being arranged such that the movement of the dismantling tool through the opening along each of the two dismantling paths and on the second portions causes the movement of the first portions of the resilient ring outside the zones of interaction with the hooks in order to free the hooks from the other of the airbag module or the steering wheel during the movement of the dismantling tool.
A sterilizing unit comprising at least one heater, wherein said heater comprises a housing and at least one heating element extending in said housing for heating a flow of air being directed through the housing, and wherein said heating element is formed as a band of an electrically conductive material, the sterilizing unit being further characterized in that: the heating element is corrugated, and the heating element is spring biased for applying a tension force to the heating element. the heating element is corrugated, and the heating element is spring biased for applying a tension force to the heating element.
The additive manufacturing machine for creating a three-dimensional model from powder material, that consists of chassis, in which are located one below the other a loading system, system for applying powder material, system for applying fusing substance, container which includes a movable bottom, a fixating system, a lifting system for lifting the movable bottom of the container, the additive manufacturing machine also includes a control unit and the system for applying powder material and the system for applying fusing substance are mounted on the chassis in such a way as to be able to move mutually perpendicular over one and the same plane, characterized in that the control unit is located at the top end of the chassis and in that the system for applying powder material consists of a body and of two rolls that rotate in opposite directions, powered by two electrical motors, wherein the two rolls are separated by a separating plate and the rolls have grooves, from which the powder material is dosed, and one of the rolls works in one direction and the other in the opposite direction.
A poly(arylene sulfide) ("PAS") polymer (PASP) comprising recurring units R PAS1 and R PAS2, represented by the following formulae, respectively: [-Ar 1 -S-], [-Ar 2 -S-], wherein - -Ar 1 - is selected from the group of formulae consisting of: - -Ar 2 - is represented by the following formula: - R and R', at each instance, is independently selected from the group consisting of a C 1 -C 12 alkyl group, a C 7 -C 24 alkylaryl group, a C 7 -C 24 aralkyl group, a C 6 -C 24 arylene group, and a C 6 -C 18 aryloxy group; - T is selected from the group consisting of a bond, -CO-, -SO 2 -, -O-, -C(CH 3) 2, phenyl and -CH 2 -; - i, at each instance, is an independently selected integer from 0 to 4; - j and k, at each instance, are an independently selected integer from 0 to 3; - R 1 is selected from the group consisting of a hydrogen, a fluorine, a C 1 -C 12 alkyl group, a C 7 -C 24 alkyaryl group, and a C 6 -C 24 aryl group; and - R 2 is selected from the group consisting of a fluorine, a C 1 -C 12 alkyl group, a C 7 -C 24 alkyaryl group, and a C 6 -C 24 aryl group. - -Ar 1 - is selected from the group of formulae consisting of: - -Ar 2 - is represented by the following formula: - R and R', at each instance, is independently selected from the group consisting of a C 1 -C 12 alkyl group, a C 7 -C 24 alkylaryl group, a C 7 -C 24 aralkyl group, a C 6 -C 24 arylene group, and a C 6 -C 18 aryloxy group; - T is selected from the group consisting of a bond, -CO-, -SO 2 -, -O-, -C(CH 3) 2, phenyl and -CH 2 -; - i, at each instance, is an independently selected integer from 0 to 4; - j and k, at each instance, are an independently selected integer from 0 to 3; - R 1 is selected from the group consisting of a hydrogen, a fluorine, a C 1 -C 12 alkyl group, a C 7 -C 24 alkyaryl group, and a C 6 -C 24 aryl group; and - R 2 is selected from the group consisting of a fluorine, a C 1 -C 12 alkyl group, a C 7 -C 24 alkyaryl group, and a C 6 -C 24 aryl group.