mhurhangee/patent-ind-claim-en huggingface dataset:
A surface tidal current estimator , comprising: a deriving module configured to derive wave-crest velocity vectors at a plurality of positions within a predetermined range of a water surface, each of the wave-crest velocity vectors being a velocity vector of a wave crest on the water surface; a correcting module configured to correct each of the wave-crest velocity vectors derived at the plurality of positions by the deriving module , based on one of the wave-crest velocity vector derived inside a predetermined area within the predetermined range by the deriving module and an ocean-wave velocity vector inside the predetermined area within the predetermined range, the ocean-wave velocity vector being a velocity vector of an ocean wave; a first area setting module configured to set a first area in an arbitrary azimuth direction, as the predetermined area; and a second area setting module configured to set a second area farther than the first area in an azimuth direction corresponding to that of the first area; wherein the correcting module corrects each of the wave-crest velocity vectors derived at the plurality of positions by the deriving module , by subtracting therefrom the wave-crest velocity vector derived inside the predetermined area within the predetermined range by the deriving module ; and wherein the correcting module corrects the wave-crest velocity vectors at a plurality of positions inside the second area by subtracting the wave-crest velocity vector inside the first area from each of the wave-crest velocity vectors of the second area. a deriving module configured to derive wave-crest velocity vectors at a plurality of positions within a predetermined range of a water surface, each of the wave-crest velocity vectors being a velocity vector of a wave crest on the water surface; a correcting module configured to correct each of the wave-crest velocity vectors derived at the plurality of positions by the deriving module , based on one of the wave-crest velocity vector derived inside a predetermined area within the predetermined range by the deriving module and an ocean-wave velocity vector inside the predetermined area within the predetermined range, the ocean-wave velocity vector being a velocity vector of an ocean wave; a first area setting module configured to set a first area in an arbitrary azimuth direction, as the predetermined area; and a second area setting module configured to set a second area farther than the first area in an azimuth direction corresponding to that of the first area; wherein the correcting module corrects each of the wave-crest velocity vectors derived at the plurality of positions by the deriving module , by subtracting therefrom the wave-crest velocity vector derived inside the predetermined area within the predetermined range by the deriving module ; and wherein the correcting module corrects the wave-crest velocity vectors at a plurality of positions inside the second area by subtracting the wave-crest velocity vector inside the first area from each of the wave-crest velocity vectors of the second area.
Internal combustion engine with a cover member attachment structure, comprising: an internal combustion engine main body that has one side wall and another side wall positioned on the opposite side to the one side wall in an axial direction of a crankshaft and rotatably supports the crankshaft and a cam shaft ; a first oil supply pipe portion and a second oil supply pipe portion that are provided in the internal combustion engine main body and extend parallel to each other from the one side wall to the other side wall ; a cover member attached to the one side wall to cover a transmission member that transmits power to the cam shaft from the crankshaft ; a cover-side boss extending toward the one side wall from a central portion in a width direction of the cover member ; and an internal combustion engine main body-side boss provided in the one side wall and to be connected to the cover-side boss with a fastener , wherein the first oil supply pipe portion includes a first boss protruding toward the cover member from the one side wall , the second oil supply pipe portion includes a second boss protruding toward the cover member from the one side wall , and the internal combustion engine main body-side boss is installed in a region sandwiched between the first boss and the second boss . an internal combustion engine main body that has one side wall and another side wall positioned on the opposite side to the one side wall in an axial direction of a crankshaft and rotatably supports the crankshaft and a cam shaft ; a first oil supply pipe portion and a second oil supply pipe portion that are provided in the internal combustion engine main body and extend parallel to each other from the one side wall to the other side wall ; a cover member attached to the one side wall to cover a transmission member that transmits power to the cam shaft from the crankshaft ; a cover-side boss extending toward the one side wall from a central portion in a width direction of the cover member ; and an internal combustion engine main body-side boss provided in the one side wall and to be connected to the cover-side boss with a fastener , wherein the first oil supply pipe portion includes a first boss protruding toward the cover member from the one side wall , the second oil supply pipe portion includes a second boss protruding toward the cover member from the one side wall , and the internal combustion engine main body-side boss is installed in a region sandwiched between the first boss and the second boss .
Pergola awning having at least two guide rails , on which a plurality of crossbars having in the extension direction a foremost crossbar and at least one further crossbar are movably mounted and wherein a flexible shading element is arranged between each two crossbars , wherein a circulating belt with a lower chord and an upper chord , in particular a toothed belt, engages and/or is fastened on the foremost crossbar in the extension direction , by means of which belt at least the foremost crossbar can be moved as a tension profile forwards in the extension direction or backwards in the retraction direction along the guide rails , wherein the belt is guided along a travel path via at least one drive roller and via at least one deflection roller , wherein the pergola awning has at least one belt tensioner with at least one tensioning roller which can be rotated about a tensioning roller axis and can be displaced between a first position and at least one second position, wherein the tensioning roller projects into the travel path of the belt at least in the second position in order to tension the belt , characterised in that the belt tensioner has at least one spring which presses the tensioning roller against the belt by means of a/the spring force.
A plug-in contact assembly suitable for automatic transfer switches, the plug-in contact assembly comprising a contact holder , two moving contact pieces disposed apart from each other, a moving contact piece bracket and a biasing spring ; the contact holder holding the moving contact piece bracket and the biasing spring therein; the two moving contact pieces disposed apart from each other being held in place relative to the contact holder under the joint action of the biasing spring and the moving contact piece bracket ; characterized in that , two ends of each said moving contact piece are each provided with a moving contact by means of welding; two moving contact piece through holes (2-1) are provided in the contact holder , and the two moving contact pieces are held in the corresponding moving contact piece through holes (2-1), respectively; one end of the biasing spring is held on the bottom (4-1) of the moving contact piece bracket , and the other end of the biasing spring presses against one of the moving contact pieces in one of the moving contact piece through holes (2-1); the top (4-2) of the moving contact piece bracket presses against the other moving contact piece in the other moving contact piece through hole. the contact holder holding the moving contact piece bracket and the biasing spring therein; the two moving contact pieces disposed apart from each other being held in place relative to the contact holder under the joint action of the biasing spring and the moving contact piece bracket ; characterized in that , two ends of each said moving contact piece are each provided with a moving contact by means of welding; two moving contact piece through holes (2-1) are provided in the contact holder , and the two moving contact pieces are held in the corresponding moving contact piece through holes (2-1), respectively; one end of the biasing spring is held on the bottom (4-1) of the moving contact piece bracket , and the other end of the biasing spring presses against one of the moving contact pieces in one of the moving contact piece through holes (2-1); the top (4-2) of the moving contact piece bracket presses against the other moving contact piece in the other moving contact piece through hole.
Depowdering device for depowdering at least one three-dimensional object of unconsolidated residual construction material formed by the layerwise application and selective solidification of a powdery construction material inside a potshaped construction container during a construction process, wherein the construction container has a construction container side wall , a container opening and a construction container base which can be moved within a construction container side wall , which adopts a specific position inside the construction container side wall depending on the progress of construction, wherein the depowdering device comprises at least the following: a) a receiving device configured and set up to receive the construction container , b) a pivoting device cooperating with the receiving device in such a way that the receiving device can be pivoted about at least one axis by the pivoting device , c) a tensioning device with at least one tensioning element for tensioning the construction container on or in the receiving device , wherein d) the tensioning device is configured and set up, in order, in a tensioned position of the construction container , to tension, in particular exclusively, the construction container base on the at least one tensioning element by physical contact of the at least one tensioning element with the construction container base , and in order, in a untensioned position, to release the construction container base from the at least one tensioning element , characterized in that e) at least one vibration generator connected to the at least one tensioning element of the tensioning device by direct or indirect physical contact is provided in such a way that vibrations generated by the vibration generator and/or knocking generated by the vibration generator are transmitted to the at least one tensioning element by means of structure-borne sound conduction. a) a receiving device configured and set up to receive the construction container , b) a pivoting device cooperating with the receiving device in such a way that the receiving device can be pivoted about at least one axis by the pivoting device , c) a tensioning device with at least one tensioning element for tensioning the construction container on or in the receiving device , wherein d) the tensioning device is configured and set up, in order, in a tensioned position of the construction container , to tension, in particular exclusively, the construction container base on the at least one tensioning element by physical contact of the at least one tensioning element with the construction container base , and in order, in a untensioned position, to release the construction container base from the at least one tensioning element , characterized in that e) at least one vibration generator connected to the at least one tensioning element of the tensioning device by direct or indirect physical contact is provided in such a way that vibrations generated by the vibration generator and/or knocking generated by the vibration generator are transmitted to the at least one tensioning element by means of structure-borne sound conduction.
Form II of ( R )-2-[2-amino-3-(indol-3-yl)propionylamino]-2-methylpropionic acid, characterized by an X-ray powder diffraction pattern using CuKa radiation (1 = 0.15418 nm) displaying peaks at °2θ (d value Å) angles of 5.87 (15.067), 11.91(7.432), 17.99 (4.931), 30.35 (2.945).
A method for controlling an amplifier of a communications device , the method comprising: - checking for a data reception at the communications device ; - characterized by freezing a gain of the amplifier if the data reception is detected by suspending switching the gain of the amplifier during reception of a data frame. - checking for a data reception at the communications device ; - characterized by freezing a gain of the amplifier if the data reception is detected by suspending switching the gain of the amplifier during reception of a data frame.
A process comprising: contacting i) a monomer comprising a C 6 to C 20 olefin, ii) a haloaluminate ionic liquid, and iii) a halide component comprising a C 1 to C 12 organohalide in a reaction zone; oligomerizing the monomer in the reaction zone to form an oligomer product; controlling the average molecular weight of the oligomer product by adjusting a molar ratio of the halide of the halide component to the aluminum of the haloaluminate ionic liquid; removing a reaction zone effluent from the reaction zone; separating the reaction zone effluent into a first stream comprising the haloaluminate ionic liquid and a second stream comprising unreacted monomer and the oligomer product; isolating one or more fractions from the oligomer product from the second stream; and hydrogenating at least one of the one or more fractions from the oligomer product, wherein the oligomer product has an average molecular weight from 400 to 800 grams/mol. contacting i) a monomer comprising a C 6 to C 20 olefin, ii) a haloaluminate ionic liquid, and iii) a halide component comprising a C 1 to C 12 organohalide in a reaction zone; oligomerizing the monomer in the reaction zone to form an oligomer product; controlling the average molecular weight of the oligomer product by adjusting a molar ratio of the halide of the halide component to the aluminum of the haloaluminate ionic liquid; removing a reaction zone effluent from the reaction zone; separating the reaction zone effluent into a first stream comprising the haloaluminate ionic liquid and a second stream comprising unreacted monomer and the oligomer product; isolating one or more fractions from the oligomer product from the second stream; and hydrogenating at least one of the one or more fractions from the oligomer product, wherein the oligomer product has an average molecular weight from 400 to 800 grams/mol.
A system for providing therapy for a motor deficit of a stroke patient, comprising; a stimulation system comprising a pulse generator , an electrode and a lead coupling the pulse generator to the electrodes, wherein the stimulation system is configured to stimulate a patient's vagus nerve; a clinical controller comprising a processor, stimulation control software, manual interfaces and a display; an external communication device configured to communicate between the clinical controller and the stimulation system ; and a manual input device configured to communicate with the clinical controller, wherein the manual input device is configured to be engaged during performance of a therapeutic task, wherein the system is configured to perform the following, when the manual input device is engaged: - the clinical controller sends a signal to the external communication device , - the external communication device sends a signal to the stimulation system , - the stimulation system receives the signal at the pulse generator and generates stimulation of the vagus nerve at the electrodes during the performance of the therapeutic task. a stimulation system comprising a pulse generator , an electrode and a lead coupling the pulse generator to the electrodes, wherein the stimulation system is configured to stimulate a patient's vagus nerve; a clinical controller comprising a processor, stimulation control software, manual interfaces and a display; an external communication device configured to communicate between the clinical controller and the stimulation system ; and a manual input device configured to communicate with the clinical controller, wherein the manual input device is configured to be engaged during performance of a therapeutic task, wherein the system is configured to perform the following, when the manual input device is engaged: - the clinical controller sends a signal to the external communication device , - the external communication device sends a signal to the stimulation system , - the stimulation system receives the signal at the pulse generator and generates stimulation of the vagus nerve at the electrodes during the performance of the therapeutic task. - the clinical controller sends a signal to the external communication device , - the external communication device sends a signal to the stimulation system , - the stimulation system receives the signal at the pulse generator and generates stimulation of the vagus nerve at the electrodes during the performance of the therapeutic task.
A handheld carboxy therapy applicator comprising: a heater module configured to receive a flow of gas at a rate between 20 and 150 milliliters per minute from a gas source and to warm gas within the flow of gas; a humidification module in fluid communication with the heater module, the humidification module configured to receive the flow of gas from the heater module and to humidify the gas within the flow of gas; and a hypodermic needle in serial connection with the humidification module, the hypodermic needle configured to receive the flow of gas from the humidification module and to inject the flow of gas into a tissue of a patient. a heater module configured to receive a flow of gas at a rate between 20 and 150 milliliters per minute from a gas source and to warm gas within the flow of gas; a humidification module in fluid communication with the heater module, the humidification module configured to receive the flow of gas from the heater module and to humidify the gas within the flow of gas; and a hypodermic needle in serial connection with the humidification module, the hypodermic needle configured to receive the flow of gas from the humidification module and to inject the flow of gas into a tissue of a patient.
Method for monitoring a state of a physical passenger transport system using an updated digital-double dataset UDDD which comprises characterizing properties of components of the physical passenger transport system in a machine-processable manner, wherein • the UDDD is assembled from component model datasets (114-NN) which include data which were determined by measuring characterizing properties on the physical passenger transport system after its assembly and installation in a structure ; • the physical passenger transport system also comprises a circulating conveyor belt which has at least one escalator step or pallet with a detection device , by means of which detection device accelerations (a x , a y , a z ) and changes in position (α, β, γ) can be detected in all three axes (x, y, z) during operation and output as measurement data; said measurement data are transmitted to the UDDD and forces, impulses and vibrations which result from the measurement data and act on the virtual components of the virtual conveyor belt corresponding to the physical components and on the virtual components interacting with the virtual conveyor belt can be determined and evaluated by means of the UDDD using dynamic simulations. • the UDDD is assembled from component model datasets (114-NN) which include data which were determined by measuring characterizing properties on the physical passenger transport system after its assembly and installation in a structure ; • the physical passenger transport system also comprises a circulating conveyor belt which has at least one escalator step or pallet with a detection device , by means of which detection device accelerations (a x , a y , a z ) and changes in position (α, β, γ) can be detected in all three axes (x, y, z) during operation and output as measurement data;
A transmission apparatus comprising: encoding circuitry , configured to encode, with an error correction code, a transmission data sequence, thereby generating two encoded data sequences that are to be decoded by a reception apparatus; modulation circuitry , configured to modulate the two encoded data sequences to generate two modulated symbol sequences; precoding circuitry , configured to precode the two modulated symbol sequences for a Line-of-Sight, LOS, environment in order to increase a capacity of reception data by hopping a preceding matrix expressed by Math. 1 for each symbol to generate two precoded symbol sequences; and characterized in that transmission circuitry , configured to transmit the two preceded symbol sequences at the same frequency in the same transmission symbol slot from different antennas, wherein in Math. 1, a = 1, i is an integer incrementing in steps of 1 from 0 to N-1, and θ 21 satisfies Math. 2, for ∀ x ( x = 0,1,2,···, N - 2) N = 2. encoding circuitry , configured to encode, with an error correction code, a transmission data sequence, thereby generating two encoded data sequences that are to be decoded by a reception apparatus; modulation circuitry , configured to modulate the two encoded data sequences to generate two modulated symbol sequences; precoding circuitry , configured to precode the two modulated symbol sequences for a Line-of-Sight, LOS, environment in order to increase a capacity of reception data by hopping a preceding matrix expressed by Math. 1 for each symbol to generate two precoded symbol sequences; and characterized in that transmission circuitry , configured to transmit the two preceded symbol sequences at the same frequency in the same transmission symbol slot from different antennas, wherein in Math. 1, a = 1, i is an integer incrementing in steps of 1 from 0 to N-1, and θ 21 satisfies Math. 2, for ∀ x ( x = 0,1,2,···, N - 2) N = 2.
A method of PV panels diagnostic in a PV panels system using a solar inverter having a inverter unit with solid state switches , connected parallel with a DC link , wherein the solar inverter is equipped with a solar inverter control unit and a PV panels monitoring unit , and both units and are computer devices, the method having the step of measuring output voltage signals U DC coming out from the PV panel system and a step of processing measured signals Udc by using the FFT (Fast Fourier Transform) of spectrum analysis, wherein the method comprises the following steps: - delivering to the control inverter unit constant values as a sensitivity indicator Senlnd, a warning indicator Warlnd, and an alarm indicator Alarlnd, - creating fingerprints (F1, F11; .....Fn-1, Fnn) for each pair of the two consecutive DC link voltage Udc measurement Udc(n-1) and Udcn for each output voltage signals from the panel system , - comparing the amplitudes of at least one pair of fingerprints (F1, F11;......Fn-1, Fnn) of the measured voltage signals with a value from the set of frequencies chosen by the user and determining a fault indicator F ind , - automatically triggering a command for the control unit to warn or alarm stop for the inverter unit . - delivering to the control inverter unit constant values as a sensitivity indicator Senlnd, a warning indicator Warlnd, and an alarm indicator Alarlnd, - creating fingerprints (F1, F11; .....Fn-1, Fnn) for each pair of the two consecutive DC link voltage Udc measurement Udc(n-1) and Udcn for each output voltage signals from the panel system , - comparing the amplitudes of at least one pair of fingerprints (F1, F11;......Fn-1, Fnn) of the measured voltage signals with a value from the set of frequencies chosen by the user and determining a fault indicator F ind , - automatically triggering a command for the control unit to warn or alarm stop for the inverter unit .