mhurhangee/ep-ind-claims huggingface dataset:
A modular highway warning strip system, comprising a plurality of segments assembled together to form a warning strip assembly having a length, each of the plurality of segments being spaced from adjacent ones of the segments along the warning strip length, the segments being assembled together along a cord disposed along the length of the warning strip assembly; characterised in that the warning strip assembly comprises a first warning strip subassembly and a second warning strip subassembly which are joined together by engagement of a first jigsaw member on an end of the first warning strip subassembly and a second jigsaw member on an end of the second warning strip subassembly.
A radial ventilation cooling structure for a motor, comprising at least three core sections, a ventilation channel steel provided between every two adjacent core sections, and a radial ventilation channel formed between the ventilation channel steel and the every two adjacent core sections, wherein impedances of a plurality of radial ventilation channels are gradually increased in a direction from two ends of the motor to a center of the motor; and wherein the ventilation channel steel is a protrusion provided inside the radial ventilation channel; and heights of ventilation channel steels in an axial direction of the motor are gradually decreased in a direction from the two ends of the motor to the center of the motor.
Steel strip, sheet or blank for producing hot formed parts having the following composition in weight%: C: 0.03 - 0.17, Mn: 0.65 - 2.50, Cr: 0.2 -2.0, Ti: 0.01 ― 0.10, Nb: 0.01-0.10, B: 0.0005-0.005, N: ≤ 0.01, wherein Ti/N ≥ 3.42, and optionally one or more of the elements selected from: Si: ≤ 0.1, Mo: ≤ 0.1, Al: ≤ 0.1, Cu: ≤ 0.1, P::≤ 0.03, S: ≤ 0.025, O: ≤ 0.01, V: ≤ 0.15, Ni: ≤ 0.15 Ca: ≤ 0.15 the remainder being iron and unavoidable impurities. C: 0.03 - 0.17, Mn: 0.65 - 2.50, Cr: 0.2 -2.0, Ti: 0.01 ― 0.10, Nb: 0.01-0.10, B: 0.0005-0.005, N: ≤ 0.01, wherein Ti/N ≥ 3.42, and optionally one or more of the elements selected from: Si: ≤ 0.1, Mo: ≤ 0.1, Al: ≤ 0.1, Cu: ≤ 0.1, P::≤ 0.03, S: ≤ 0.025, O: ≤ 0.01, V: ≤ 0.15, Ni: ≤ 0.15 Ca: ≤ 0.15 the remainder being iron and unavoidable impurities. Si: ≤ 0.1, Mo: ≤ 0.1, Al: ≤ 0.1, Cu: ≤ 0.1, P::≤ 0.03, S: ≤ 0.025, O: ≤ 0.01, V: ≤ 0.15, Ni: ≤ 0.15 Ca: ≤ 0.15 the remainder being iron and unavoidable impurities.
System for measuring at least one high-frequency signal, wherein said system comprises at least one active broad band sampling head and at least one measuring device and wherein each active broad band sampling head and each measuring device in each case have a high frequency port (6, 11) for transmitting a respective high-frequency signal, and each measuring device or each signal processing unit used in place of a measuring device in each case and each active broad band sampling head in each case have power supply ports for the power supply of each of the active broad band sampling heads and in each case have data signal ports for transmission of communications data between the measuring device or signal processing unit and broad band sampling head, wherein the signal assignment and signal specification of all the power supply and data signal ports of each measuring device, of each signal processing unit and of each active broad band sampling head are identical and are designed according to one interface standard, characterised in that the power supply and data signal ports are identical in their electrical and mechanical configuration in each measuring device, in each signal processing unit and either directly in the broad band sampling head or in an adapter assembly which is connected electrically with the broad band sampling head by means of a connecting lead with power supply and data signal ports on the broad band sampling head side and the adapter assembly side, and in each case have a socket standardised according to the USB standard to receive a plug standardised according to the USB standard.
A battery-assisted bicycle configured to assist by electric motor driving force, comprising: the electric motor; a vehicle speed calculator configured to calculate a vehicle speed of the battery-assisted bicycle; a first state determiner configured to determine that the battery-assisted bicycle is in a first state, the battery-assisted bicycle moving by driving force by the electric motor with no pedal effort in the first state; an operation unit configured to output an operation signal used to give instruction to stop the electric motor; a timing unit configured to measure time from a point when the operation signal is input; and a motor controller configured to control driving of the electric motor so that the vehicle speed attained when elapsed time from the point of input of the operation signal reaches a prescribed first period is a first vehicle speed and stops the electric motor after the first period, if the first state determiner determines that the battery-assisted bicycle is in the first state and the operation signal is input from the operation unit. the electric motor; a vehicle speed calculator configured to calculate a vehicle speed of the battery-assisted bicycle; a first state determiner configured to determine that the battery-assisted bicycle is in a first state, the battery-assisted bicycle moving by driving force by the electric motor with no pedal effort in the first state; an operation unit configured to output an operation signal used to give instruction to stop the electric motor; a timing unit configured to measure time from a point when the operation signal is input; and a motor controller configured to control driving of the electric motor so that the vehicle speed attained when elapsed time from the point of input of the operation signal reaches a prescribed first period is a first vehicle speed and stops the electric motor after the first period, if the first state determiner determines that the battery-assisted bicycle is in the first state and the operation signal is input from the operation unit.
Liquid-liquid extraction process for the purification of estolides comprising: a) supplying a feed for the process comprising estolides, and residual free fatty acids, wherein the residual free fatty acids are present in a concentration of from 15 to 25 % by weight of feed; b) adding a polar solvent to the feed, in a quantity sufficient to achieve a feed:alcohol ratio of from 3.5:1 to 4.5:1 (by weight) and stirring to keep the reaction mixture substantially homogeneous, in a temperature range of from 20°C to 30°C; c) separating the phases: a first phase comprising the solvent and extracted fatty acids, and a second phase, comprising the estolide and solvent; d) sending the second phase to a vacuum still, operating at pressures in the range of from 350 mbar to 390 mbar and at temperatures in the range of from 30°C to 60°C, for recovery of solvent for later reuse in the process; e) recovering the solvent from the first phase by distillation, for later reuse in the process. a) supplying a feed for the process comprising estolides, and residual free fatty acids, wherein the residual free fatty acids are present in a concentration of from 15 to 25 % by weight of feed; b) adding a polar solvent to the feed, in a quantity sufficient to achieve a feed:alcohol ratio of from 3.5:1 to 4.5:1 (by weight) and stirring to keep the reaction mixture substantially homogeneous, in a temperature range of from 20°C to 30°C; c) separating the phases: a first phase comprising the solvent and extracted fatty acids, and a second phase, comprising the estolide and solvent; d) sending the second phase to a vacuum still, operating at pressures in the range of from 350 mbar to 390 mbar and at temperatures in the range of from 30°C to 60°C, for recovery of solvent for later reuse in the process; e) recovering the solvent from the first phase by distillation, for later reuse in the process.
A therapeutic collar designed to be fitted around the neck of a patient comprising: - A flexible body having in a worn configuration an annular shape and having a longitudinal axis, said body comprising two end sections (3, 4) that can be parted reciprocally and defining a front section and a rear section and two side connecting zones; - A dividing plane between said end sections (3, 4); - A closing and opening device of said two end sections (3, 4); - A reciprocally coaxial inner wall and an outer wall of said body; said body further comprising cooling means associated to said inner wall characterized in that said cooling means comprise a plurality of cooling units, each consisting of the combination of a Peltier's cell and a serpentine tube in close contact with each other, with a layer of heat conductive gel interposed therebetween, said serpentine having respective inlet and outlet; each cooling unit being further connected to a pumping group and a control unit through a respective connection which is independent from connections of other cooling units. - A flexible body having in a worn configuration an annular shape and having a longitudinal axis, said body comprising two end sections (3, 4) that can be parted reciprocally and defining a front section and a rear section and two side connecting zones; - A dividing plane between said end sections (3, 4); - A closing and opening device of said two end sections (3, 4); - A reciprocally coaxial inner wall and an outer wall of said body; said body further comprising cooling means associated to said inner wall characterized in that said cooling means comprise a plurality of cooling units, each consisting of the combination of a Peltier's cell and a serpentine tube in close contact with each other, with a layer of heat conductive gel interposed therebetween, said serpentine having respective inlet and outlet; each cooling unit being further connected to a pumping group and a control unit through a respective connection which is independent from connections of other cooling units.
A binder that is used for forming fiber-based items and that binds fibers, the binder comprising: a polyester containing a structural unit derived from polyethylene terephthalate, a structural unit derived from at least one polyvalent carboxylic acid, and a structural unit derived from at least one polyhydric alcohol including trimethylolpropane; and an aggregation inhibitor being inorganic fine particles, wherein the binder exhibits a viscosity coefficient higher than 3500 poises at 150°C in dynamic viscoelasticity measurement; wherein the polyethylene terephthalate content in the polyester is 30% to 55%; wherein the polyvalent carboxylic acid content in the polyester is 15% to 30%; and wherein the trimethylolpropane content in the polyester is 0.1% to 5%. a polyester containing a structural unit derived from polyethylene terephthalate, a structural unit derived from at least one polyvalent carboxylic acid, and a structural unit derived from at least one polyhydric alcohol including trimethylolpropane; and an aggregation inhibitor being inorganic fine particles, wherein the binder exhibits a viscosity coefficient higher than 3500 poises at 150°C in dynamic viscoelasticity measurement; wherein the polyethylene terephthalate content in the polyester is 30% to 55%; wherein the polyvalent carboxylic acid content in the polyester is 15% to 30%; and wherein the trimethylolpropane content in the polyester is 0.1% to 5%.
Computer-implemented method for correcting a 2D measurement value (m), comprising the steps of: - receiving 2D image data of an examination object, - detecting landmarks in the 2D image data wherein 2D positions (a) of the landmarks are estimated, - predicting a corrected measurement value (m^_pdf) of the examination object using a trained model (Z(a, I, o ref)), which depends on the received 2D image data, the estimated 2D positions (a) of the landmarks and a reference parameter (o ref) of a reference 3D orientation of the examination object, characterised in that the trained model (Z(a, I, o ref)) comprises a first trained model (U) and a second trained model (V(m, o^_pdf, o ref)) to be carried out one after another, wherein - an input of the first trained model (U) comprises the 2D image data and - an output of the first trained model (U) comprises estimated 3D orientation parameters (o^_pdf), wherein - an input for the second trained model (V(m, o^_pdf, o ref)) comprises - the estimated 3D orientation parameters (o^_pdf), - the reference parameters (o ref) of a reference 3D-orientation of the examination object and - a 2D measurement value (m), depending on the estimated 2D positions (a), to be corrected, and - an output of the second trained model (V(m, o^_pdf, o ref)) comprises the corrected measurement value (m^_pdf). - receiving 2D image data of an examination object, - detecting landmarks in the 2D image data wherein 2D positions (a) of the landmarks are estimated, - predicting a corrected measurement value (m^_pdf) of the examination object using a trained model (Z(a, I, o ref)), which depends on the received 2D image data, the estimated 2D positions (a) of the landmarks and a reference parameter (o ref) of a reference 3D orientation of the examination object, characterised in that the trained model (Z(a, I, o ref)) comprises a first trained model (U) and a second trained model (V(m, o^_pdf, o ref)) to be carried out one after another, wherein the trained model (Z(a, I, o ref)) comprises a first trained model (U) and a second trained model (V(m, o^_pdf, o ref)) to be carried out one after another, wherein - an input of the first trained model (U) comprises the 2D image data and - an output of the first trained model (U) comprises estimated 3D orientation parameters (o^_pdf), wherein - an input for the second trained model (V(m, o^_pdf, o ref)) comprises - the estimated 3D orientation parameters (o^_pdf), - the reference parameters (o ref) of a reference 3D-orientation of the examination object and - a 2D measurement value (m), depending on the estimated 2D positions (a), to be corrected, and - the estimated 3D orientation parameters (o^_pdf), - the reference parameters (o ref) of a reference 3D-orientation of the examination object and - a 2D measurement value (m), depending on the estimated 2D positions (a), to be corrected, and - an output of the second trained model (V(m, o^_pdf, o ref)) comprises the corrected measurement value (m^_pdf).
Device for altering the length of the loading area of trailers and semitrailers, wherein these can be equipped with a central support formed as a tube or recess and an inner support that can be inserted into and removed from the latter, and wherein the inner support is provided with an open ring beam on the upper side or a ring beam with an upper flange closed all the way round, and fastening means for the ring beam are provided on the trailer or semitrailer, characterised in that with a closed ring beam the upper flange of the ring beam is designed to absorb bending forces of the inner support and that with an open ring beam on the upper side latching elements (12, 14) are arranged laterally on the inner support and on the opposite sides of the ring beams in order to transfer bending forces.
A network (100, 700) comprising: a plurality of nodes; and a plurality of links (106, 108) communicatively coupling each of the plurality of nodes (102, 702) to at least one respective adjacent node of the plurality of nodes (102, 702) via a first communication channel and to another respective adjacent node of the plurality of nodes (102, 702) via a second communication channel, wherein the plurality of nodes (102, 702) and the plurality of links (106, 108) are arranged in a ring having a braided ring topology; wherein a first node and a second node of the plurality of nodes (102, 702) are configured to source data, wherein the first node and the second node are adjacent nodes(102, 702) wherein the first node is configured to send a first communication comprising the data to the second node via a third node of the plurality of nodes (102, 702) that is adjacent the first node and via a fourth node of the plurality of nodes (102, 702) that is adjacent the second node; wherein the second node is configured to send a second communication comprising the data to the first node via the third node and via the fourth node; wherein the first node and the second nodes are configured to terminate transmission of the first communication and the second communication when the first communication does not match the second communication, wherein the first and second communications comprise a tail comprising one or more bits or a self-affirmation message added at an end of the communication, wherein the transmission is terminated such that at least part of the tail is not transmitted. a plurality of nodes; and a plurality of links (106, 108) communicatively coupling each of the plurality of nodes (102, 702) to at least one respective adjacent node of the plurality of nodes (102, 702) via a first communication channel and to another respective adjacent node of the plurality of nodes (102, 702) via a second communication channel, wherein the plurality of nodes (102, 702) and the plurality of links (106, 108) are arranged in a ring having a braided ring topology; wherein a first node and a second node of the plurality of nodes (102, 702) are configured to source data, wherein the first node and the second node are adjacent nodes(102, 702) wherein the first node is configured to send a first communication comprising the data to the second node via a third node of the plurality of nodes (102, 702) that is adjacent the first node and via a fourth node of the plurality of nodes (102, 702) that is adjacent the second node; wherein the second node is configured to send a second communication comprising the data to the first node via the third node and via the fourth node; wherein the first node and the second nodes are configured to terminate transmission of the first communication and the second communication when the first communication does not match the second communication, wherein the first and second communications comprise a tail comprising one or more bits or a self-affirmation message added at an end of the communication, wherein the transmission is terminated such that at least part of the tail is not transmitted.
Lamp comprising - a light source comprising one or more LED type diodes; - means (100, 110, 230) for controlling the brightness and/or the geometry of the light beam of said light source in response to a control information or a control signal; - a sensing system for generating an electrical signal representative of the reflected light intensity of the area illuminated by said light beam on an illuminated object; - a control unit for generating said control information or said control signal from the information generated by said sensing system, characterized in that said sensing system is associated with a variable field focal length controlled by said sensor unit for the purpose of generating electrical signals corresponding to different focal lengths and in that said sensing system comprises - a sensor associated with an electrically controllable optical system and configured to be controlled by said control unit, And in that said control unit is configured to jointly generate said control information or control signal allowing the control of the brightness and/or geometry of said light beam and a control signal for electrically controlling said optical system. - a light source comprising one or more LED type diodes; - means (100, 110, 230) for controlling the brightness and/or the geometry of the light beam of said light source in response to a control information or a control signal; - a sensing system for generating an electrical signal representative of the reflected light intensity of the area illuminated by said light beam on an illuminated object; - a control unit for generating said control information or said control signal from the information generated by said sensing system, characterized in that said sensing system is associated with a variable field focal length controlled by said sensor unit for the purpose of generating electrical signals corresponding to different focal lengths and in that said sensing system comprises - a sensor associated with an electrically controllable optical system and configured to be controlled by said control unit,
A device for direct energy deposition additive manufacturing, in particular for wire-arc additive manufacturing, comprising: - a welding torch configured to generate an arc for generating a melt pool on a surface of a workpiece, and - a wire feeder configured to feed a wire towards the melt pool to generate a weld seam on said surface, and - an enclosure which, in use, encloses at least part of the workpiece and comprises a process atmosphere with a process gas, - a sucking device configured to suck part of the process gas out of the enclosure and thereafter to re-introduce the process gas into the process atmosphere, characterized in that the enclosure comprises or consists of a flexible housing or a tent and in that the sucking device is connected to a buffer volume or a pressure stabilizing unit. - a welding torch configured to generate an arc for generating a melt pool on a surface of a workpiece, and - a wire feeder configured to feed a wire towards the melt pool to generate a weld seam on said surface, and - an enclosure which, in use, encloses at least part of the workpiece and comprises a process atmosphere with a process gas, - a sucking device configured to suck part of the process gas out of the enclosure and thereafter to re-introduce the process gas into the process atmosphere,
Copolymer of ethylene and of isoprene, which copolymer comprises from 10 to 35 mol% of isoprene units, at least 70% of which are in the 3,4 configuration and a portion of which is in the 1,2 configuration, which copolymer has a glass transition temperature of less than -35°C.