mhurhangee/ep-ind-claims huggingface dataset:
A sail construction for vessels comprising two foldable sail supports mountable on the deck on each side of the vessel, a connecting coupler for connecting said foldable sail supports on their top, a sail supported by said foldable sail supports, a holder (1.1) for holding and tensioning said sail upwards, a bottom holder pivotally mountable on the deck of the vessel in the middle between said foldable sail supports, wherein the bottom holder is arranged to tension and to roll said sail and arranged as storage compartment of said sail, a system of ropes, a bolt and tackle system, forestays, (5.1) and backstays, (6.1) for fastening and pre-tensioning elastically said foldable sail supports on the vessels, wherein a rope (4.3) of said system of ropes is arranged to run through a pulley (3.1) mounted on said connecting coupler to said holder (1.1) for lifting and lowering said sail, characterized in that in the middle or near the middle both said sail supports are designed so that they can be folded back or forth in relation to the axis of the vessel or vehicle in order to be able to reduce the height at least by half, airfoils (2.1) with built-in tubes (2.2) located on the exist edge of the profile of each airfoil (2.1) are installed along the length of the two sail supports to increase the airfoil stability and to prevent injuries to the crew when colliding with the exit edge of the airfoils (2.1) and are arranged freely rotatable around their longitudinal axis of said sail supports. two foldable sail supports mountable on the deck on each side of the vessel, a connecting coupler for connecting said foldable sail supports on their top, a sail supported by said foldable sail supports, a holder (1.1) for holding and tensioning said sail upwards, a bottom holder pivotally mountable on the deck of the vessel in the middle between said foldable sail supports, wherein the bottom holder is arranged to tension and to roll said sail and arranged as storage compartment of said sail, a system of ropes, a bolt and tackle system, forestays, (5.1) and backstays, (6.1) for fastening and pre-tensioning elastically said foldable sail supports on the vessels, wherein a rope (4.3) of said system of ropes is arranged to run through a pulley (3.1) mounted on said connecting coupler to said holder (1.1) for lifting and lowering said sail, characterized in that in the middle or near the middle both said sail supports are designed so that they can be folded back or forth in relation to the axis of the vessel or vehicle in order to be able to reduce the height at least by half, airfoils (2.1) with built-in tubes (2.2) located on the exist edge of the profile of each airfoil (2.1) are installed along the length of the two sail supports to increase the airfoil stability and to prevent injuries to the crew when colliding with the exit edge of the airfoils (2.1) and are arranged freely rotatable around their longitudinal axis of said sail supports.
Tubular drive mechanism for a panel of a vehicle, preferably a luggage compartment lid, a tailgate or door, comprising two tubes (10, 20) which are nested telescopically inside one another, the free ends (30, 40) of which can be hinged to the panel of the vehicle and to the vehicle itself, respectively, it being possible to move the tubes (10, 20) apart and together, so as to open and to close the panel, by means of a spindle which is driven by an electric motor and has a spindle nut arranged on said spindle, the electric motor, spindle, spindle nut and an electronic circuit board which has sensor elements (19, 230) being arranged inside the tubular drive mechanism, the electronic circuit board having the shape of a disc and being arranged perpendicular to the axis of symmetry of the tubes (10, 20), and a power electronic device for controlling the electric motor also being arranged on the same electronic circuit board, characterised in that the electronic circuit board comprises Hall elements, circuit breakers and electronic circuits which are required for controlling these circuit breakers, in which circuits computer programs for controlling the circuit breakers are stored.
A nozzle for a fan assembly for creating an air current, the nozzle comprising: an interior passage for receiving an air flow, and for dividing a received air flow into a plurality of air streams; and a plurality of air outlets (158, 184) for emitting the air flow from the nozzle, the nozzle defining an opening through which air from outside the nozzle is drawn by the air flow emitted from the air outlets (158, 184); wherein the interior passage extends about the opening, and houses means for heating a first portion of each air stream and means for diverting a second portion of each air stream away from the heating means; and the plurality of air outlets (158, 184) comprises at least one first air outlet for emitting the first portions of the air streams, and at least one second air outlet for emitting the second portions of the air streams. an interior passage for receiving an air flow, and for dividing a received air flow into a plurality of air streams; and a plurality of air outlets (158, 184) for emitting the air flow from the nozzle, the nozzle defining an opening through which air from outside the nozzle is drawn by the air flow emitted from the air outlets (158, 184); wherein the interior passage extends about the opening, and houses means for heating a first portion of each air stream and means for diverting a second portion of each air stream away from the heating means; and the plurality of air outlets (158, 184) comprises at least one first air outlet for emitting the first portions of the air streams, and at least one second air outlet for emitting the second portions of the air streams.
A control system adapted to control a hybrid electric vehicle, the hybrid electric vehicle including a generator driven by an engine to generate alternating current; a motor configured to provide a drive force to propel the vehicle and configured as a generator to regenerate energy during vehicle deceleration, a rectifier (21; 60) to rectify alternating current generated by the generator, an inverter connected to a feed circuit between the rectifier (21; 60) and the motor to convert direct current in the feed circuit into alternating current, a power supply connected to a line connecting the rectifier (21; 60) with the inverter; a first feed circuit to supply a current to the motor via the inverter, a second feed circuit to supply a current to the motor, wherein the second feed circuit includes an alternating current converter (24,41,42,43), characterized in that the second feed circuit bypasses the inverter, the control system comprising: a current calculating module (101, 113) to calculate a current value, the current being at least one of a current to drive the motor (S17, S48) and a current generated by the motor (S27, S61); and a feed controller to selectively implement a first mode (S22, S23, S32, S33, S51, S64) when the calculated current value is below a specified current value and to selectively implement a second mode (S19, S29, S50, S63) when the calculated current value is more than the specified current value, wherein either the first feed circuit or the second feed circuit is used in the first mode and both the first feed circuit and the second feed circuit are used in the second mode. a current calculating module (101, 113) to calculate a current value, the current being at least one of a current to drive the motor (S17, S48) and a current generated by the motor (S27, S61); and a feed controller to selectively implement a first mode (S22, S23, S32, S33, S51, S64) when the calculated current value is below a specified current value and to selectively implement a second mode (S19, S29, S50, S63) when the calculated current value is more than the specified current value, wherein either the first feed circuit or the second feed circuit is used in the first mode and both the first feed circuit and the second feed circuit are used in the second mode.
A method for separating and purifying lenalidomide enantiomers, wherein an enantiomeric mixture of lenalidomide is supplied to chromatography, and an organic solvent selected from the group consisting of aprotic solvents, secondary alcohols and mixtures thereof is used as the mobile phase for optical resolution of each enantiomer of lenalidomide from a racemic mixture of lenalidomide, wherein the aprotic solvent is ethyl acetate, acetonitrile or a combination thereof.
An atomizer for an electronic cigarette, comprising a housing, a liquid storage chamber arranged in the housing, and an atomization assembly arranged in the housing, the atomization assembly comprising a main body, a liquid absorbing element arranged in the main body, and a heating element arranged in the main body, the main body defining a liquid inlet, the liquid storage chamber defining a liquid outlet fitting the liquid inlet in an inner sidewall thereof; wherein a blocking element is further provided between an inner sidewall of the liquid storage chamber and the main body, and a through hole is defined on the blocking element; wherein one end of the housing is provided with a movable element, which is capable of rotating relative to the housing to cause rotation of the blocking element, thus allowing the liquid inlet and the liquid outlet to be in communication through the through hole or allowing a sidewall of the blocking element to cut off the communication between the liquid inlet and the liquid outlet, characterized in that one end of the housing defines a liquid refill port configured for refilling liquid to the liquid storage chamber; the movable element is detachably disposed at the liquid refill port in a manner of rotation relative to the housing; the movable element drives the blocking element to rotate through a friction between the movable element and the blocking element; and, after the movable element drives the blocking element to rotate by a preset range of angles, the blocking element is restricted and no longer rotates, but the movable element is capable of continuing rotating so as to be detached from or disposed at the liquid refill port.
A combined electrophoresis and electroblotting cassette comprising: a separation gel; and a sheet (110, 114) adjacent to a surface of the separation gel, characterized in that the sheet (110, 114) is folded along a folding line located perpendicular to a longitudinal axis of the sheet (110, 114) so to facilitate peeling which allows its removal from the cassette without opening the cassette. a separation gel; and a sheet (110, 114) adjacent to a surface of the separation gel, characterized in that the sheet (110, 114) is folded along a folding line located perpendicular to a longitudinal axis of the sheet (110, 114) so to facilitate peeling which allows its removal from the cassette without opening the cassette.
Method for operating a machine that processes printing materials via a computer, which comprises the following steps: • Acquisition of print job parameters for print jobs for the machine that processes printing materials and of machine parameters by the computer • Evaluation of the acquired parameters to determine the machine status by the computer • Request and provision of liquid consumables for optimizing operation of the machine based on the machine status determined by the computer • The computer carries out optimized maintenance measures on the machine on the basis of the determined machine state, characterized in that the computer carries out a consumption prediction of the liquid consumables by means of a regression model for requesting and providing liquid consumables on the basis of the determined machine state, wherein the fluid consumables are varnish for a coating unit, ink for a printing unit or dampening solution for a dampening unit of the machine that processes the printing materials, and wherein the computer uses a linear regression model or a self-learning model for the regression model for predicting the consumption of the liquid consumables. • Acquisition of print job parameters for print jobs for the machine that processes printing materials and of machine parameters by the computer • Evaluation of the acquired parameters to determine the machine status by the computer • Request and provision of liquid consumables for optimizing operation of the machine based on the machine status determined by the computer • The computer carries out optimized maintenance measures on the machine on the basis of the determined machine state, characterized in that the computer carries out a consumption prediction of the liquid consumables by means of a regression model for requesting and providing liquid consumables on the basis of the determined machine state, wherein the fluid consumables are varnish for a coating unit, ink for a printing unit or dampening solution for a dampening unit of the machine that processes the printing materials, and wherein the computer uses a linear regression model or a self-learning model for the regression model for predicting the consumption of the liquid consumables. characterized in that the computer carries out a consumption prediction of the liquid consumables by means of a regression model for requesting and providing liquid consumables on the basis of the determined machine state, wherein the fluid consumables are varnish for a coating unit, ink for a printing unit or dampening solution for a dampening unit of the machine that processes the printing materials, and wherein the computer uses a linear regression model or a self-learning model for the regression model for predicting the consumption of the liquid consumables.
Valve device for an air suspension system in a vehicle, the valve device having a) connectors (14, 15, 18) for an air spring bellows of the air suspension system and for a compressed air supply, b) a ventilating connector which is connected to atmosphere, c) a manual operating element (9, 20), d) a non-manual actuating element (7, 8, 46, 47, 48, 49), it being possible for the valve device to be adjusted both by means of the manual operating element (9, 20) and by means of the non-manual actuating element (7, 8, 46, 47, 48, 49) in such a way that the connectors (14, 15) for an air spring bellows are connected to the connector for a compressed air supply or the ventilating connector, and which valve device has, furthermore, e) a latching device, by means of which the manual operating element (9, 20) can be latched in at least one position, characterized in that the valve device has an unlocking device (91, 92, 94) for unlocking the latching device, which unlocking device (91, 92, 94) is configured in such a way that it is actuated upon actuation of the non-manual actuating element (7, 8, 46, 47, 48, 49) and unlocks the latching device as a result. a) connectors (14, 15, 18) for an air spring bellows of the air suspension system and for a compressed air supply, b) a ventilating connector which is connected to atmosphere, c) a manual operating element (9, 20), d) a non-manual actuating element (7, 8, 46, 47, 48, 49), it being possible for the valve device to be adjusted both by means of the manual operating element (9, 20) and by means of the non-manual actuating element (7, 8, 46, 47, 48, 49) in such a way that the connectors (14, 15) for an air spring bellows are connected to the connector for a compressed air supply or the ventilating connector, and which valve device has, furthermore, e) a latching device, by means of which the manual operating element (9, 20) can be latched in at least one position, characterized in that the valve device has an unlocking device (91, 92, 94) for unlocking the latching device, which unlocking device (91, 92, 94) is configured in such a way that it is actuated upon actuation of the non-manual actuating element (7, 8, 46, 47, 48, 49) and unlocks the latching device as a result.
Drilling device for producing a bore inside a support tube in the ground with - a housing which can be inserted into the support tube and fixed in a torque-proof manner on the support tube, - a cutting means for removing ground material, - a rotary drive for driving the cutting means in a rotating manner, - a feed means for feeding flushing liquid, - a receiving container which is arranged above the cutting means and into which removed ground material can be conveyed, and - a discharge means, with which the removed ground material can be discharged together with the flushing liquid in the upward direction from the receiving container, characterized in that - the receiving container comprises a stirring chamber, in which at least one stirring element driven in a rotating manner is provided for stirring the removed ground material with the flushing liquid, - between the cutting means and the at least one stirring element a conveying means is arranged, and - in that through the feed means the flushing liquid can be fed into an area of the cutting means. - a housing which can be inserted into the support tube and fixed in a torque-proof manner on the support tube, - a cutting means for removing ground material, - a rotary drive for driving the cutting means in a rotating manner, - a feed means for feeding flushing liquid, - a receiving container which is arranged above the cutting means and into which removed ground material can be conveyed, and - a discharge means, with which the removed ground material can be discharged together with the flushing liquid in the upward direction from the receiving container, characterized in that - the receiving container comprises a stirring chamber, in which at least one stirring element driven in a rotating manner is provided for stirring the removed ground material with the flushing liquid, - between the cutting means and the at least one stirring element a conveying means is arranged, and - in that through the feed means the flushing liquid can be fed into an area of the cutting means.
Storage choke for a multiphase DC/DC converter, comprising at least two coils and a core, by means of which the coils are coupled to one another, wherein the core comprises a first region, which comprises a first material, and a second region, which comprises a second material that is different from the first material, the first material and the second material being magnetic, wherein the first region comprises rod-shaped cores and inner plates, each coil being wound around a corresponding one of the rod-shaped cores, the rod-shaped cores being arranged between the inner plates and bearing directly on the inner plates, and wherein the second region comprises outer plates, which are arranged on the sides of the inner plates facing away from the rod-shaped cores and are arranged parallel to the inner plates. wherein the core comprises a first region, which comprises a first material, and a second region, which comprises a second material that is different from the first material, the first material and the second material being magnetic, wherein the first region comprises rod-shaped cores and inner plates, each coil being wound around a corresponding one of the rod-shaped cores, the rod-shaped cores being arranged between the inner plates and bearing directly on the inner plates, and wherein the second region comprises outer plates, which are arranged on the sides of the inner plates facing away from the rod-shaped cores and are arranged parallel to the inner plates.
A power converter device comprising: first through third semiconductor modules (300U-300W) respectively provided for three phases of a 3 phase inverter circuit, and incorporating upper and lower arm series circuits; and a flow path forming cabinet in a rectangular prism shape having an electric equipment containing space and a coolant flow path formed to surround the electric equipment containing space; wherein the coolant flow path includes a first flow path provided along a first side face of the flow path forming cabinet, a second flow path provided along a second side face contiguous to one side of the first side face, and connected to one end of the first flow path, and a third flow path provided along a third side face contiguous to the other side of the first side face, and connected to the other end of the first flow path, wherein the first semiconductor module is arranged at the first flow path in parallel with the first side face, wherein the second semiconductor module is arranged at the second flow path in parallel with the second side face, and wherein the third semiconductor module is arranged at the third flow path in parallel with the third side face; characterized in that the first flow path is formed such that at least one portion of the first semiconductor module is arranged at an area interposed by the second and the third semiconductor modules (300U, 300W). first through third semiconductor modules (300U-300W) respectively provided for three phases of a 3 phase inverter circuit, and incorporating upper and lower arm series circuits; and a flow path forming cabinet in a rectangular prism shape having an electric equipment containing space and a coolant flow path formed to surround the electric equipment containing space; wherein the coolant flow path includes a first flow path provided along a first side face of the flow path forming cabinet, a second flow path provided along a second side face contiguous to one side of the first side face, and connected to one end of the first flow path, and a third flow path provided along a third side face contiguous to the other side of the first side face, and connected to the other end of the first flow path, wherein the first semiconductor module is arranged at the first flow path in parallel with the first side face, wherein the second semiconductor module is arranged at the second flow path in parallel with the second side face, and wherein the third semiconductor module is arranged at the third flow path in parallel with the third side face; characterized in that the first flow path is formed such that at least one portion of the first semiconductor module is arranged at an area interposed by the second and the third semiconductor modules (300U, 300W).
A cutting device, comprising: a cutting unit, wherein the cutting unit has an accommodation arrangement for holding a cutting arrangement and a distance measuring sensor, a measuring plate, wherein the distance measuring sensor can determine a distance to the measuring plate, wherein the cutting unit can be moved by means of a control curve, taking into account the distance to the measuring plate determined by the distance measuring sensor, characterised in that the distance measuring sensor is arranged at an end of the accommodation arrangement pointing towards the measuring plate, and the cutting arrangement is provided at the opposite end of the accommodation arrangement. a cutting unit, wherein the cutting unit has an accommodation arrangement for holding a cutting arrangement and a distance measuring sensor, a measuring plate, wherein the distance measuring sensor can determine a distance to the measuring plate, wherein the cutting unit can be moved by means of a control curve, taking into account the distance to the measuring plate determined by the distance measuring sensor, characterised in that the distance measuring sensor is arranged at an end of the accommodation arrangement pointing towards the measuring plate, and the cutting arrangement is provided at the opposite end of the accommodation arrangement.