mhurhangee/ep-ind-claims huggingface dataset:
Cooling module for a motor vehicle with an electric motor, comprising: - at least one heat exchanger (30 1 -30 4), - at least one first tangential-flow turbomachine capable of creating an air flow in contact with the at least one heat exchanger (30 1 -30 4), and - a fairing for housing said at least one heat exchanger (30 1 -30 4) and/or at least said first tangential-flow turbomachine, characterized in that the fairing has a structural part and an acoustic insulation part supported by the structural part and in that the structural part comprises a plurality of reinforcements that are spaced apart from one another and the acoustic insulation part at least partially covers the space between the reinforcements. - at least one heat exchanger (30 1 -30 4), - at least one first tangential-flow turbomachine capable of creating an air flow in contact with the at least one heat exchanger (30 1 -30 4), and - a fairing for housing said at least one heat exchanger (30 1 -30 4) and/or at least said first tangential-flow turbomachine,
A method for decoding multiple touches on a touch sensing surface arranged in a matrix, said method comprising the steps of: scanning a plurality of channels aligned on an axis for determining self values of the channels; determining left and right slope values for the self values of channels having respective adjacent left and right channels, wherein a left slope value is equal to the at least one self value minus a self value of a channel to the left of the at least one channel, and a right slope value is equal to the at least one self value minus a self value of a channel to the right of the at least one channel, wherein local maximum self values are determined by detecting a slope sign transition and for the remaining self values potential maximum self values are each determined if a change of slope ratios between left and right slope is greater than a threshold of slope ratios; scanning a plurality of nodes of those channels that have the local or potential maximum self value for determining mutual values of the nodes; and comparing the mutual values to determine which one of the nodes has the largest mutual value, wherein the node having the largest mutual value on the local maximum self value channel is a potential touch location. scanning a plurality of channels aligned on an axis for determining self values of the channels; determining left and right slope values for the self values of channels having respective adjacent left and right channels, wherein a left slope value is equal to the at least one self value minus a self value of a channel to the left of the at least one channel, and a right slope value is equal to the at least one self value minus a self value of a channel to the right of the at least one channel, wherein local maximum self values are determined by detecting a slope sign transition and for the remaining self values potential maximum self values are each determined if a change of slope ratios between left and right slope is greater than a threshold of slope ratios; scanning a plurality of nodes of those channels that have the local or potential maximum self value for determining mutual values of the nodes; and comparing the mutual values to determine which one of the nodes has the largest mutual value, wherein the node having the largest mutual value on the local maximum self value channel is a potential touch location.
Depolluting building including a cover and a supporting structure supporting the cover and delimiting beneath the cover a free space having a height of at least 2 m, the cover comprising: - a plant filtering layer, - an upper wall which is permeable to water and air and which supports the filtering layer, - a lower wall which is located under the upper wall and which is impermeable to water, the lower wall joining with the upper wall to define a plenum, - at least one forced ventilation device designed to draw air into the plenum through the filter layer and the upper wall and to discharge the air in said free space, in which the forced ventilation device comprises: - a waterproof channel extending in the plenum between a lower end tightly sealed to the lower wall and an upper end opening into the plenum, the lower end of the channel connected to the atmosphere beneath the lower wall, - and a fan located in said channel, a cap located above the channel, said cap being impermeable and designed to prevent water from passing through the filter layer and the upper wall and falling into the channel. - a plant filtering layer, - an upper wall which is permeable to water and air and which supports the filtering layer, - a lower wall which is located under the upper wall and which is impermeable to water, the lower wall joining with the upper wall to define a plenum, - at least one forced ventilation device designed to draw air into the plenum through the filter layer and the upper wall and to discharge the air in said free space, - a waterproof channel extending in the plenum between a lower end tightly sealed to the lower wall and an upper end opening into the plenum, the lower end of the channel connected to the atmosphere beneath the lower wall, - and a fan located in said channel,
An analyte detection system comprising: a nanochannel having a first end, a second end opposite the first end, a first side, and a second side opposite the first side; a pair of electrophoretic electrodes, comprising a first electrophoretic electrode at the first end and a second electrophoretic electrode at the second end; a pair of orthogonal electrodes, comprising a first orthogonal electrode at first side and a second orthogonal electrode at the second side; and a plurality of nano-field effect transistor devices (nanoFETs) disposed in the nanochannel, wherein the plurality of nanoFETs comprise at least four different nanoFETs each functionalized with a different receptor analyte than the others. a nanochannel having a first end, a second end opposite the first end, a first side, and a second side opposite the first side; a pair of electrophoretic electrodes, comprising a first electrophoretic electrode at the first end and a second electrophoretic electrode at the second end; a pair of orthogonal electrodes, comprising a first orthogonal electrode at first side and a second orthogonal electrode at the second side; and a plurality of nano-field effect transistor devices (nanoFETs) disposed in the nanochannel, wherein the plurality of nanoFETs comprise at least four different nanoFETs each functionalized with a different receptor analyte than the others.
Flat heat exchanger, in particular as a support for photovoltaic cells, comprising - a heat exchanger body that is designed in the shape of an extruded profile, extruded from aluminum or from an aluminum alloy, and has a width of at least 200 mm, preferably of at least 300 mm and particularly preferably of at least 400 mm, with - two walls spaced from one another (23a, 23b) that are fluid-tightly connected with each other on two opposed sides and are connected with each other inside their surfaces at a multitude of connection points and - a throughflow chamber that is defined between the two walls (23a, 23b) and - two collector pipes (15a, 15b) that have a circular cross-section and that are fluid-tightly placed on open opposed sides (19a, 19b) of the heat exchanger body and that are connected with the throughflow chamber so that fluid can flow through, characterized in that the ends of the heat exchanger body that are facing the collector pipes (15a, 15b) are adapted to the curvature of the collector pipes (15a, 15b) in such a way that at least one wall (23a, 23b) forms a tangent to the collector pipes (15a, 15b) so that a generatrix of the collector pipes (15a, 15b) and a wall (23a, 23b) are respectively situated within one plane. - a heat exchanger body that is designed in the shape of an extruded profile, extruded from aluminum or from an aluminum alloy, and has a width of at least 200 mm, preferably of at least 300 mm and particularly preferably of at least 400 mm, with - two walls spaced from one another (23a, 23b) that are fluid-tightly connected with each other on two opposed sides and are connected with each other inside their surfaces at a multitude of connection points and - a throughflow chamber that is defined between the two walls (23a, 23b) and - two collector pipes (15a, 15b) that have a circular cross-section and that are fluid-tightly placed on open opposed sides (19a, 19b) of the heat exchanger body and that are connected with the throughflow chamber so that fluid can flow through,
An apparatus for guiding a stable rotating actuation of a gear hinge unit in a rotating door between a first support bracket fixedly connected to a supporting frame side of a door frame and a second support bracket fixedly connected to a door side in the gear hinge unit constituting the rotating door, in order to minimize a tensile stress generated in an upper part of the gear hinge unit above a neutral axis a-a' of the door and a compressive stress generated in a lower part of the gear hinge unit under the neutral axis a-a' of the door by a rotational moment applied to the gear hinge unit through the second support bracket due to the load of the door, comprising: a fixed first vertical support installed at a lower end of the supporting frame of the door frame, comprising a fixed end fixedly installed to the supporting frame of the door frame, and a first rotational guide body being placed in a center part of a trajectory arc of the rotational actuation of a gear portion of the second support bracket of the door and having a first vertical contact surface (1510a, 1510b) corresponding to a trajectory arc of a rotational actuation of the gear portion of the second support bracket of the door; and a rotating second vertical support installed at a lower end of the door, comprising a fixed end fixedly installed to the door, and a second rotational guide body being placed on the trajectory arc of the rotational actuation of the gear portion of the second support bracket of the door and having a second vertical contact surface (1520a, 1520b) in line contact with a first vertical contact surface (1510a, 1510b) corresponding to the trajectory in the arc of the rotational actuation of the gear portion of the second support bracket of the door. a fixed first vertical support installed at a lower end of the supporting frame of the door frame, comprising a fixed end fixedly installed to the supporting frame of the door frame, and a first rotational guide body being placed in a center part of a trajectory arc of the rotational actuation of a gear portion of the second support bracket of the door and having a first vertical contact surface (1510a, 1510b) corresponding to a trajectory arc of a rotational actuation of the gear portion of the second support bracket of the door; and a rotating second vertical support installed at a lower end of the door, comprising a fixed end fixedly installed to the door, and a second rotational guide body being placed on the trajectory arc of the rotational actuation of the gear portion of the second support bracket of the door and having a second vertical contact surface (1520a, 1520b) in line contact with a first vertical contact surface (1510a, 1510b) corresponding to the trajectory in the arc of the rotational actuation of the gear portion of the second support bracket of the door.
A swimming and diving aid with a vehicle hull and handles on an upper part (11.6) of the vehicle hull which a user holds on to while he rests with the upper part of his body on the upper part (11.6), with a flow channel which is arranged in the vehicle hull and which accommodates a propeller, driven by an electric motor, with radially outwardly directed propeller blades mounted on a base part of the propeller, wherein the electric motor has a rigidly arranged motor stator and a rotating rotor which is spatially assigned to the motor stator, characterised in that the rotor of the electric motor is coupled to at least one outer end of at least one propeller blade, the motor stator is arranged circumferentially at least partially around the rotor, a flow stator with stator vanes is arranged downstream of the propeller in the flow direction of the water, the flow stator is fixed to the wall of the flow channel via the stator vanes, and/or a stator housing for receiving the motor stator is connected to the outer ends of at least part of the stator vanes, on the side of the flow stator facing away from the propeller, an engagement protection, with engagement protection struts formed thereon, is arranged, the engagement protection struts are fixed to the wall of the flow channel, and a base body of the engagement protection is preferably connected to the flow stator.
Audio mixer for mixing a plurality of audio tracks to a mixture signal, the audio mixer comprising: a semantic audio analysis configured to obtain track information by analysing the plurality of audio tracks; a semantic command interpreter (30; 35) for receiving a semantic mixing command and for deriving a plurality of mixing parameters for the plurality of audio tracks from the semantic mixing command, wherein the track information is provided to a semantic-to-crisp module, wherein the semantic-to-crisp module receives information derived from the semantic mixing command, wherein the semantic-to-crisp module creates the plurality of mixing parameters based on the track information and the information derived from the semantic mixing command; an audio track processor (70; 75) for processing the plurality of audio tracks in accordance with the plurality of mixing parameters; and an audio track combiner for combining the plurality of audio tracks processed by the audio track processor into the mixture signal. a semantic audio analysis configured to obtain track information by analysing the plurality of audio tracks; a semantic command interpreter (30; 35) for receiving a semantic mixing command and for deriving a plurality of mixing parameters for the plurality of audio tracks from the semantic mixing command, wherein the track information is provided to a semantic-to-crisp module, wherein the semantic-to-crisp module receives information derived from the semantic mixing command, wherein the semantic-to-crisp module creates the plurality of mixing parameters based on the track information and the information derived from the semantic mixing command; an audio track processor (70; 75) for processing the plurality of audio tracks in accordance with the plurality of mixing parameters; and an audio track combiner for combining the plurality of audio tracks processed by the audio track processor into the mixture signal.
A method of recovering rhenium, comprising: adding an electron donor and a ketone compound to a solution containing perrhenate ions, the electron donor being an aliphatic secondary alcohol or an aliphatic secondary thioalcohol; irradiating the solution after step with ultraviolet light to precipitate a reduced species of the perrhenate ions contained in the solution; and separating the reduced species of the perrhenate ions from the solution, the reduced species being precipitated during the ultraviolet light irradiation, wherein the pH of the solution is 6.3 or higher than 6.3 during step. adding an electron donor and a ketone compound to a solution containing perrhenate ions, the electron donor being an aliphatic secondary alcohol or an aliphatic secondary thioalcohol; irradiating the solution after step with ultraviolet light to precipitate a reduced species of the perrhenate ions contained in the solution; and separating the reduced species of the perrhenate ions from the solution, the reduced species being precipitated during the ultraviolet light irradiation,
A method for determining a calibrated leveling of a surveying instrument with an accelerometer, in particular of a theodolite or a total-station or a laser-scanner or a rotating laser or a laser tracker, the method comprising: ▪ a moving of the accelerometer around a rotation axis of the instrument, wherein the accelerometer is arranged at a known position with respect to the rotation axis, and during the moving, ▪ acquiring of a movement profile of the moving by a rotational position encoder for the rotation axis, and ▪ sensing of an acceleration (18,19) due to dynamics of the moving by the accelerometer as accelerometer readings, and thereof, ▪ deriving at least one calibration parameter (21,22) for the accelerometer based on the movement profile, the corresponding accelerometer readings and the known position and ▪ providing the calibrated leveling to the surveying instrument by applying the at least one calibration parameter (21,22) to the accelerometer readings, in particular wherein the calibrated leveling is thereafter considered fixed by the instrument. ▪ a moving of the accelerometer around a rotation axis of the instrument, wherein the accelerometer is arranged at a known position with respect to the rotation axis, and during the moving, ▪ acquiring of a movement profile of the moving by a rotational position encoder for the rotation axis, and ▪ sensing of an acceleration (18,19) due to dynamics of the moving by the accelerometer as accelerometer readings, and thereof, ▪ deriving at least one calibration parameter (21,22) for the accelerometer based on the movement profile, the corresponding accelerometer readings and the known position and ▪ providing the calibrated leveling to the surveying instrument by applying the at least one calibration parameter (21,22) to the accelerometer readings, in particular wherein the calibrated leveling is thereafter considered fixed by the instrument.
An electrical connection system for an electrical apparatus such as a junction block, the electrical connection system comprising: - a conductive strip having an electrical contact location arranged to cooperate with a conductive portion of an electrical conductor in a connection position and a cooperation area arranged to cooperate with a portion of a support rail in a cooperation position, the conductive strip comprising a first portion and a second portion, the first portion being facing the second portion, the conductive strip having a U-like general shape, - a clamping device arranged to hold the conductive portion in the connection position, such as a leaf spring comprising a bearing branch arranged to be mounted to the conductive strip and a clamping branch (23") arranged to hold the conductive portion in the connection position, - a holding device arranged to hold the cooperation position with the portion of the support rail, the holding device comprising an additional leaf spring provided with an additional bearing branch arranged to be mounted to the conductive strip and an additional clamping branch (57") arranged to cooperate with the portion of the support rail in the cooperation position, the additional bearing branch extending in the extension of the second portion of the conductive strip, the cooperation area being formed in the first portion of the conductive strip. - a conductive strip having an electrical contact location arranged to cooperate with a conductive portion of an electrical conductor in a connection position and a cooperation area arranged to cooperate with a portion of a support rail in a cooperation position, the conductive strip comprising a first portion and a second portion, the first portion being facing the second portion, the conductive strip having a U-like general shape, - a clamping device arranged to hold the conductive portion in the connection position, such as a leaf spring comprising a bearing branch arranged to be mounted to the conductive strip and a clamping branch (23") arranged to hold the conductive portion in the connection position, - a holding device arranged to hold the cooperation position with the portion of the support rail,
A component dispenser comprising a housing accommodating in its interior: - a reservoir for holding components, and - a dosing volume, the component dispenser further comprising a pick surface, which is located outside the housing and suitable to let an industrial robot pick components from the pick surface, the component dispenser configured to: - displace a selection of components from the reservoir into the dosing volume as a result of the component dispenser being exposed to a first sequence of movements, - displace the selection of components from the dosing volume onto the pick surface as a result of the component dispenser being exposed to a second sequence of movements, and - return any components remaining on the pick surface back into the reservoir as a result of the component dispenser being exposed to a third sequence of movements. - a reservoir for holding components, and - a dosing volume, the component dispenser further comprising a pick surface, which is located outside the housing and suitable to let an industrial robot pick components from the pick surface, - displace a selection of components from the reservoir into the dosing volume as a result of the component dispenser being exposed to a first sequence of movements, - displace the selection of components from the dosing volume onto the pick surface as a result of the component dispenser being exposed to a second sequence of movements, and - return any components remaining on the pick surface back into the reservoir as a result of the component dispenser being exposed to a third sequence of movements.