mhurhangee/ep-ind-claims huggingface dataset:
A combined cycle power generation system for an aircraft comprising: a fuel cell cycle comprising: a first compressor disposed on a first shaft; a first turbine disposed on the first shaft; a fuel cell in fluid communication with the first compressor and a fuel source, the fuel cell being configured to receive first compressed fluid from the first compressor and fuel from the fuel source; and a combustor in fluid communication with the fuel cell and the first turbine, the combustor being configured to combust partially spent fuel from the fuel cell and produce combustion exhaust gas for delivery to the turbine; a supercritical CO 2 cycle comprising: a second compressor disposed on a second shaft; shaft, a second turbine disposed on the second shaft; a supercritical CO 2 fluid circuit in thermal communication with the combustor and configured to deliver CO 2 to the second turbine and the second compressor; and a first heat exchanger in thermal communication with the supercritical CO 2 fluid circuit and a source of cooling fluid; and a mechanical linkage configured to transfer power from the second shaft to the first shaft. a fuel cell cycle comprising: a first compressor disposed on a first shaft; a first turbine disposed on the first shaft; a fuel cell in fluid communication with the first compressor and a fuel source, the fuel cell being configured to receive first compressed fluid from the first compressor and fuel from the fuel source; and a combustor in fluid communication with the fuel cell and the first turbine, the combustor being configured to combust partially spent fuel from the fuel cell and produce combustion exhaust gas for delivery to the turbine; a first compressor disposed on a first shaft; a first turbine disposed on the first shaft; a fuel cell in fluid communication with the first compressor and a fuel source, the fuel cell being configured to receive first compressed fluid from the first compressor and fuel from the fuel source; and a combustor in fluid communication with the fuel cell and the first turbine, the combustor being configured to combust partially spent fuel from the fuel cell and produce combustion exhaust gas for delivery to the turbine; a supercritical CO 2 cycle comprising: a second compressor disposed on a second shaft; shaft, a second turbine disposed on the second shaft; a supercritical CO 2 fluid circuit in thermal communication with the combustor and configured to deliver CO 2 to the second turbine and the second compressor; and a first heat exchanger in thermal communication with the supercritical CO 2 fluid circuit and a source of cooling fluid; and a second compressor disposed on a second shaft; shaft, a second turbine disposed on the second shaft; a supercritical CO 2 fluid circuit in thermal communication with the combustor and configured to deliver CO 2 to the second turbine and the second compressor; and a first heat exchanger in thermal communication with the supercritical CO 2 fluid circuit and a source of cooling fluid; and a mechanical linkage configured to transfer power from the second shaft to the first shaft.
A method for providing a processed cellulose-comprising mixed starting material for forming a regenerated cellulosic molded body, wherein the method comprises: providing a first starting material which comprises a lignocellulosic raw material; providing a second starting material which comprises a cellulose-containing lignin-free product; mixing the first starting material and the second starting material to a mixed starting material; and at least partially commonly processing the first starting material and the second starting material for obtaining the processed cellulose-comprising mixed starting material, in particular a mixed pulp, wherein the lignocellulosic raw material comprises one of the group which is consisting of: a wood material, in particular wood chips, annual plants, and wherein the cellulose-containing lignin-free product comprises textiles. providing a first starting material which comprises a lignocellulosic raw material; providing a second starting material which comprises a cellulose-containing lignin-free product; mixing the first starting material and the second starting material to a mixed starting material; and at least partially commonly processing the first starting material and the second starting material for obtaining the processed cellulose-comprising mixed starting material, in particular a mixed pulp, wherein the lignocellulosic raw material comprises one of the group which is consisting of: a wood material, in particular wood chips, annual plants, and wherein the cellulose-containing lignin-free product comprises textiles.
A method for sharing data between data acquisition equipment, comprising: acquiring a gravity sensing value detected in real time by first data acquisition equipment in motion, wherein the first data acquisition equipment is anyone piece of data acquisition equipment in a data acquisition equipment group; when it is detected that the gravity sensing value meets a preset condition, reading data acquired by the first data acquisition equipment according to a predetermined sharing rule; and sending the data acquired by the first data acquisition equipment according to the sharing rule to any at least one piece of second data acquisition equipment in the data acquisition equipment group, wherein there is a pre-established data transmission channel between the second data acquisition equipment and the first data acquisition equipment, wherein, the first data acquisition equipment shares the acquired data to the second data acquisition equipment, and similarly, the second data acquisition equipment shares acquired data to the first data acquisition equipment according to a method similar to the data acquisition and transmission method of the first data acquisition equipment. acquiring a gravity sensing value detected in real time by first data acquisition equipment in motion, wherein the first data acquisition equipment is anyone piece of data acquisition equipment in a data acquisition equipment group; when it is detected that the gravity sensing value meets a preset condition, reading data acquired by the first data acquisition equipment according to a predetermined sharing rule; and sending the data acquired by the first data acquisition equipment according to the sharing rule to any at least one piece of second data acquisition equipment in the data acquisition equipment group, wherein there is a pre-established data transmission channel between the second data acquisition equipment and the first data acquisition equipment, wherein, the first data acquisition equipment shares the acquired data to the second data acquisition equipment, and similarly, the second data acquisition equipment shares acquired data to the first data acquisition equipment according to a method similar to the data acquisition and transmission method of the first data acquisition equipment.
An optical sheet including a first layer comprising a polycarbonate resin and a second layer comprising an amorphous polyamide resin, the first layer and the second layer being layered by coextrusion molding, wherein: the first layer and the second layer are peelable from each other at an interface therebetween; at least one of a surface of the first layer not a surface as the interface, and a surface of the second layer not a surface as the interface, has a fine uneven shape formed thereat; and the polycarbonate resin contained in the first layer and the amorphous polyamide resin contained in the second layer have a glass transition temperature difference in the range of ±40°C. the first layer and the second layer are peelable from each other at an interface therebetween; at least one of a surface of the first layer not a surface as the interface, and a surface of the second layer not a surface as the interface, has a fine uneven shape formed thereat; and the polycarbonate resin contained in the first layer and the amorphous polyamide resin contained in the second layer have a glass transition temperature difference in the range of ±40°C.
Cooled turbine wheel, in particular high-pressure turbine wheel for an aircraft engine, having turbine blades arranged radially on a circumferential surface of a rotor disc, wherein in each case one turbine blade having a profiled blade root is inserted into a correspondingly profiled disc finger groove on the circumferential surface of the rotor disc, and wherein a cooling device is provided with at least one cooling air supply channel extending at least substantially axially and over at least part of the axial length of the blade root, and with at least one cooling channel which branches off from said cooling air supply channel and extends in the interior of the turbine blade as far as to an outlet opening on the surface thereof, characterized in that a plug (plug 20) having a cooling air passage is arranged in the cooling air supply channel on an inflow side of the blade root, wherein the cooling air passage has a geometry forming a microcompressor in such a manner that the cooling air passage has a channel cross-sectional area expanding in the manner of a diffuser in the flow direction, and a curvature horizontally in the flow direction, and wherein the plug is formed integrally with the blade root.
A medical apparatus, comprising: at least one electrode configured to directly contact a tissue of a patient proximate to a depot of brown adipose tissue and to deliver first and second electrical signals to the patient, the first electrical signal being configured to cause activation of a first nerve type in the BAT so as to increase energy expenditure of the BAT, and the second electrical signal being configured to inhibit a second nerve type in the BAT that is different from the first nerve type; and at least one signal generator in electronic communication with the at least one electrode and configured to generate the first and second electrical signals delivered by the at least one electrode, wherein the apparatus is configured to apply the second electrical signal before the first electrical signal is applied, wherein the first electrical signal has: a voltage of an amplitude in a range of about 1 to 20V, a current of an amplitude in a range of about 2 to 6 mA, a pulse width in a range of about 10 μs to 1 ms, an activation signal pulse frequency in a range of about 0.1 to 40 Hz, and a duration of signal train in a range of about 1 second to continuous, wherein a current of the first electrical signal is greater than a current of the second electrical signal, and wherein the second electrical signal has a pulse width that is equal to or less than a pulse width of the first electrical signal. at least one electrode configured to directly contact a tissue of a patient proximate to a depot of brown adipose tissue and to deliver first and second electrical signals to the patient, the first electrical signal being configured to cause activation of a first nerve type in the BAT so as to increase energy expenditure of the BAT, and the second electrical signal being configured to inhibit a second nerve type in the BAT that is different from the first nerve type; and at least one signal generator in electronic communication with the at least one electrode and configured to generate the first and second electrical signals delivered by the at least one electrode, wherein the apparatus is configured to apply the second electrical signal before the first electrical signal is applied, wherein the first electrical signal has: a voltage of an amplitude in a range of about 1 to 20V, a current of an amplitude in a range of about 2 to 6 mA, a pulse width in a range of about 10 μs to 1 ms, an activation signal pulse frequency in a range of about 0.1 to 40 Hz, and a duration of signal train in a range of about 1 second to continuous, a voltage of an amplitude in a range of about 1 to 20V, a current of an amplitude in a range of about 2 to 6 mA, a pulse width in a range of about 10 μs to 1 ms, an activation signal pulse frequency in a range of about 0.1 to 40 Hz, and a duration of signal train in a range of about 1 second to continuous, wherein a current of the first electrical signal is greater than a current of the second electrical signal, and wherein the second electrical signal has a pulse width that is equal to or less than a pulse width of the first electrical signal.
Control method for a drive motor of a bicycle, wherein the bicycle is configured to be driven manually by means of pedalling force of the cyclist applied to pedals of the bicycle and by a motor by means of a motor torque of the drive motor, wherein the control method comprises the following steps: • acquiring pedalling variables which represent the activation of the pedals by the cyclist, • acquiring current location coordinates of the bicycle, • acquiring a route, and • actuating the drive motor as a function of the acquired pedalling variables and a determined current degree of assistance, characterized in that the control method comprises the following steps before the actuation of the drive motor: • acquiring route data as a function of the acquired route, wherein the route data has the route coordinates of the route and a degree of assistance which is respectively assigned to the route coordinates, and • determining the current degree of assistance as a function of the route data and the current location coordinates. • acquiring pedalling variables which represent the activation of the pedals by the cyclist, • acquiring current location coordinates of the bicycle, • acquiring a route, and • actuating the drive motor as a function of the acquired pedalling variables and a determined current degree of assistance, • acquiring route data as a function of the acquired route, wherein the route data has the route coordinates of the route and a degree of assistance which is respectively assigned to the route coordinates, and • determining the current degree of assistance as a function of the route data and the current location coordinates.
A girth for horses, which comprises at least one elongated body which has, substantially at its ends, respective elements for engagement with corresponding connecting portions which are integral with a saddle, said girth comprising a breastplate which is associated with said at least one elongated body and is intended to be arranged during use so as to face the chest region of the horse, characterized in that said breastplate has, at its surface intended to face the chest region, at least one perimetric raised portion which extends along at least one portion of the peripheral edge of said breastplate.
Method for operating a motor vehicle, which motor vehicle has at least two axles (2, 3) with in each case at least two wheels and in each case one electric machine for the individual drive of each of the wheels, and which motor vehicle has a steering device which has a steering wheel for defining a steer angle of the wheels (4, 5) of at least one of the axles, wherein the steering wheel can be rotated in each steering direction as far as a maximum steering wheel angle, wherein, when the maximum steering wheel angle is reached, a force applied to the steering wheel is detected, and in a manner dependent on the applied force, the electric machines are actuated on a wheel-specific basis in order to increase the yaw rate, characterized in that the electric machines are actuated individually in order to increase the yaw rate only below a predefinable threshold speed of the motor vehicle, which is predefined in a manner dependent on a transition speed of the electric machines.
A water outlet for draining water from a walk-on-able floor, said water outlet comprising: a tube (9, 12, 13) extending from an inlet region of the tube, which inlet region is vertical in the built-in state and can receive the water for guiding it downwards to a bent region of the tube, which has a horizontal section in the built-in state, and a foamed material block for receiving said tube (9, 12, 13) with said inlet region and said section of said bent region, said foamed material block having an overall width of 300 mm at maximum, taken in a direction perpendicular to the length extension of said tube (9, 12, 13) and horizontal in the built-in state, characterized in that said foamed material block comprises at least two foam shell parts (2, 3) which can hold said tube (9, 12, 13) in an assembled state, wherein said tube (9, 12, 3) can be taken out of the foam shell parts (2, 3) by disassembling the latter, wherein one foam shell part is adapted for being arranged below said tube (9, 12, 13) and the other foam shell part is adapted for being arranged above said tube (9, 12, 13), wherein said foam shell two provided for being arranged below is softer then said foam shell part provided for being arranged above, and in that said foamed material block has a total extension of 400 mm at maximum, taken in the direction of said length extension of the tube (9, 12, 13). a tube (9, 12, 13) extending from an inlet region of the tube, which inlet region is vertical in the built-in state and can receive the water for guiding it downwards to a bent region of the tube, which has a horizontal section in the built-in state, and a foamed material block for receiving said tube (9, 12, 13) with said inlet region and said section of said bent region, said foamed material block having an overall width of 300 mm at maximum, taken in a direction perpendicular to the length extension of said tube (9, 12, 13) and horizontal in the built-in state, characterized in that said foamed material block comprises at least two foam shell parts (2, 3) which can hold said tube (9, 12, 13) in an assembled state, wherein said tube (9, 12, 3) can be taken out of the foam shell parts (2, 3) by disassembling the latter, wherein one foam shell part is adapted for being arranged below said tube (9, 12, 13) and the other foam shell part is adapted for being arranged above said tube (9, 12, 13), wherein said foam shell two provided for being arranged below is softer then said foam shell part provided for being arranged above, and in that said foamed material block has a total extension of 400 mm at maximum, taken in the direction of said length extension of the tube (9, 12, 13).
A computer-implemented method, comprising: obtaining first feature information by extracting features from a query image based on a first neural network; obtaining at least two pieces of third feature information, each containing feature information corresponding to a target area of the query image and filtered out an interference area, wherein the target area is an area of interest obtained using a deep learning network and the interference area is a background area of the target area, and wherein each piece of third feature information is obtained by performing a convolution processing on the first feature information based on a second neural network, using a respective one of at least two different first convolution processing parameters for performing the convolution processing, each including a dilation ratio corresponding to different scales, respectively; obtaining second feature information by performing fusion processing on the at least two of pieces of third feature information; and identifying an image corresponding to the query image according to the second feature information. obtaining first feature information by extracting features from a query image based on a first neural network; obtaining at least two pieces of third feature information, each containing feature information corresponding to a target area of the query image and filtered out an interference area, wherein the target area is an area of interest obtained using a deep learning network and the interference area is a background area of the target area, and wherein each piece of third feature information is obtained by performing a convolution processing on the first feature information based on a second neural network, using a respective one of at least two different first convolution processing parameters for performing the convolution processing, each including a dilation ratio corresponding to different scales, respectively; obtaining second feature information by performing fusion processing on the at least two of pieces of third feature information; and identifying an image corresponding to the query image according to the second feature information.
An aerosol-forming article comprising an aerosol-forming substrate and at least one filter element downstream of the substrate and circumscribed by a plug wrap wherein the at least one filter element is a hollow bore filter element and wherein the article has at least one unimpeded flow path along the outer surface of the filter element; characterised in that the plug wrap conforms to the at least one unimpeded flow path along the outer surface of the filter element.
A printed circuit board comprising: a first insulating layer; a second insulating layer on the first insulating layer; and a first via layer formed through the first insulating layer and having a height equal to a height of the first insulating layer; a second via layer on the first via layer while passing through the second insulating layer and having a height equal to a height of the second insulating layer; and an adhesive layer between the first and second via layers, and wherein the section of the first via layer is symmetrical to the section of the second via layer about the adhesive layer; and wherein each of the first and second via layers is a single layer. a first insulating layer; a second insulating layer on the first insulating layer; and a first via layer formed through the first insulating layer and having a height equal to a height of the first insulating layer; a second via layer on the first via layer while passing through the second insulating layer and having a height equal to a height of the second insulating layer; and an adhesive layer between the first and second via layers, and wherein the section of the first via layer is symmetrical to the section of the second via layer about the adhesive layer; and wherein each of the first and second via layers is a single layer.