mhurhangee/ep-ind-claims huggingface dataset:
A device for charging an energy store, comprising: a first terminal for connecting to a direct current source; a second terminal for connecting to the energy store; a third terminal for connecting to an alternating current source; and a parallel connection between the first and second terminals (15, 25), the parallel connection comprising an intermediate connection circuit, a first transducer circuit for converting an input voltage and an input current to an output direct voltage and an output direct current, and a second transducer circuit; wherein the first transducer circuit comprises an AC/DC transducer having a switch connected between a main choke and a grid choke of the AC/DC transducer; wherein the switch is configured to separate the grid choke from the main choke and to connect the main choke to the second terminal in a direct current charge mode; and wherein the AC/DC transducer comprises a series connection made up of the grid choke 75, the switch 70 and the main choke 65 and wherein the grid choke is connected to the third terminal; wherein the second transducer circuit comprises a DC/DC transducer. a first terminal for connecting to a direct current source; a second terminal for connecting to the energy store; a third terminal for connecting to an alternating current source; and a parallel connection between the first and second terminals (15, 25), the parallel connection comprising an intermediate connection circuit, a first transducer circuit for converting an input voltage and an input current to an output direct voltage and an output direct current, and a second transducer circuit; wherein the first transducer circuit comprises an AC/DC transducer having a switch connected between a main choke and a grid choke of the AC/DC transducer; wherein the switch is configured to separate the grid choke from the main choke and to connect the main choke to the second terminal in a direct current charge mode; and wherein the AC/DC transducer comprises a series connection made up of the grid choke 75, the switch 70 and the main choke 65 and wherein the grid choke is connected to the third terminal; wherein the second transducer circuit comprises a DC/DC transducer.
Process for operating in starting mode or in standby mode a unit, termed power-to-gas unit, comprising a number N of reactors having a stack of solid oxide type elemental electrolysis cells, the cathodes of which are made of methanation reaction catalyst material(s), the process comprising the following steps, when it is desired to carry out an increase in temperature of the N reactors or of a fraction thereof, or when the level of available electricity is insufficient to carry out a high-temperature electrolysis or a co-electrolysis of H 2 O and CO 2 within all of the N reactors: a/ a number P of reactors are supplied with electricity and, if required, with heat, and either steam H 2 O, or a mixture of steam and carbon dioxide CO 2, is supplied and distributed to the cathodes of the P reactors so as to carry out, at each cathode of the P reactors, either a high-temperature electrolysis of the steam H 2 O or a high-temperature co-electrolysis of steam and carbon dioxide, b/ at least part of the gases resulting from the electrolysis or from the co-electrolysis is recovered and is supplied and distributed to each cathode of a number X of reactors not supplied with electricity, the number X being less than or equal to N-P, so as to carry out, at each cathode of the X reactors, a methanation by heterogeneous catalysis. a/ a number P of reactors are supplied with electricity and, if required, with heat, and either steam H 2 O, or a mixture of steam and carbon dioxide CO 2, is supplied and distributed to the cathodes of the P reactors so as to carry out, at each cathode of the P reactors, either a high-temperature electrolysis of the steam H 2 O or a high-temperature co-electrolysis of steam and carbon dioxide, b/ at least part of the gases resulting from the electrolysis or from the co-electrolysis is recovered and is supplied and distributed to each cathode of a number X of reactors not supplied with electricity, the number X being less than or equal to N-P, so as to carry out, at each cathode of the X reactors, a methanation by heterogeneous catalysis.
A high-definition intelligent integrated conduit detector, comprising: a box body and a bracket, wherein a front side of the box body is provided with a front mounting recess, a back side of the box body is provided with a back mounting recess, a hard cable coil, a control terminal and a high-definition camera, one end of the hard cable coil being connected with the control terminal through a waterproof joint, other end of the hard cable coil being connected with the high-definition camera, and the high-definition camera is located outside the box body, the back side of the box body is connected with a back cover through a fastener, and the back cover is matched with the back mounting recess, wherein a waterproof keyboard and the control terminal are installed in the front mounting recess of the box body, a counter and the hard cable coil are installed in the back mounting recess of the box body, a front cover is pivotably connected with the front side of the box body, and the front cover is matched with the front mounting recess, and the bracket is rotatably connected with the box body through a strong resistance rotating shaft. a box body and a bracket, wherein a front side of the box body is provided with a front mounting recess, a back side of the box body is provided with a back mounting recess, a hard cable coil, a control terminal and a high-definition camera, one end of the hard cable coil being connected with the control terminal through a waterproof joint, other end of the hard cable coil being connected with the high-definition camera, and the high-definition camera is located outside the box body, the back side of the box body is connected with a back cover through a fastener, and the back cover is matched with the back mounting recess, wherein a waterproof keyboard and the control terminal are installed in the front mounting recess of the box body, a counter and the hard cable coil are installed in the back mounting recess of the box body, a front cover is pivotably connected with the front side of the box body, and the front cover is matched with the front mounting recess, and the bracket is rotatably connected with the box body through a strong resistance rotating shaft.
Electronic device comprising a memory element electronic circuitry for reading out the memory element, the circuitry comprising a first electronic path being coupled to the memory element, a second electronic path having predetermined electrical properties, and a basic detection element being coupled to the first and second electronic paths (IP, RP), characterised in that the first and second electronic paths (IP, PR) are coupled to each other on one side to provide a common input node, wherein a same digital signal supplied to the common input node propagates over the first electronic path and the second electronic path, and the basic detection element is configured to determine the information contained in the memory element based on respective time delays of said digital signal propagating over the first path and the second path from the common input node to the basic detection element.
A print head for additive manufacturing, comprising: at least two proximate hobs suitable to receive and extrude therebetween a print material filament for the additive manufacturing; a motor capable of imparting a rotation to at least one of the two hobs, wherein the extrusion results from the rotation; a dynamic force adjustment capable of exerting force on one of the two hobs to urge the force-receiving hob toward the other of the two hobs; and a controller communicatively connected with the dynamic force adjustment and configured to control the force exertion thereof, characterized in that, the controller is configured to dynamically adjust an inter-hob force between the two hobs while a printing process is in progress. at least two proximate hobs suitable to receive and extrude therebetween a print material filament for the additive manufacturing; a motor capable of imparting a rotation to at least one of the two hobs, wherein the extrusion results from the rotation; a dynamic force adjustment capable of exerting force on one of the two hobs to urge the force-receiving hob toward the other of the two hobs; and a controller communicatively connected with the dynamic force adjustment and configured to control the force exertion thereof, characterized in that, the controller is configured to dynamically adjust an inter-hob force between the two hobs while a printing process is in progress.
Bicycle comprising a front wheel and a rear wheel, the front and rear wheels being linked by a frame, the rear wheel comprising spokes and being mounted on a rear hub, the rear hub being linked to a first drive mechanism, comprising at least one pinion mounted on a first free wheel, the pinion being able to be driven by a chain, the latter being able to be set in motion by a crankset, the bicycle comprising: - a motor, mounted on the frame; - the motor being configured to set in motion, by means of a motor shaft, a flexible transmission element; - the rear hub being linked to a second drive mechanism, that can be driven by the flexible transmission element; such that the rear wheel can be driven: - by the first drive mechanism, when the chain is set in motion by the crankset; - or by the second drive mechanism, when the flexible transmission element is actuated by the motor; - the bicycle being such that the second drive mechanism comprises a transmission crown ring secured to a second free wheel, the transmission crown ring being able to be driven in rotation by the flexible transmission element; - the second free wheel is inserted around the rear hub, such that the free wheel can drive the rear hub when the flexible transmission element drives the transmission crown ring in rotation; the bicycle being such that it comprises a brake disc, mounted on the rear hub, the second drive mechanism extending between the spokes and the brake disc, the bicycle being characterized in that the brake disc is linked to the second free wheel by a disc support, a nut keeping the brake disc against the disc support, the nut also keeping the second free wheel on the rear hub. - a motor, mounted on the frame; - the motor being configured to set in motion, by means of a motor shaft, a flexible transmission element; - the rear hub being linked to a second drive mechanism, that can be driven by the flexible transmission element; - by the first drive mechanism, when the chain is set in motion by the crankset; - or by the second drive mechanism, when the flexible transmission element is actuated by the motor; - the bicycle being such that the second drive mechanism comprises a transmission crown ring secured to a second free wheel, the transmission crown ring being able to be driven in rotation by the flexible transmission element; - the second free wheel is inserted around the rear hub, such that the free wheel can drive the rear hub when the flexible transmission element drives the transmission crown ring in rotation;
A transmembrane, transmucosal or transepithelial delivery system for use in a method of treating an eye disease, wherein the system comprises: a pharmaceutically active agent which is a negatively charged polypeptide or glycoprotein; and a polyarginine of 4 to 20 amino acids in length; wherein the pharmaceutically active agent is mixed with or non-covalently bound to the polyarginine. a pharmaceutically active agent which is a negatively charged polypeptide or glycoprotein; and a polyarginine of 4 to 20 amino acids in length; wherein the pharmaceutically active agent is mixed with or non-covalently bound to the polyarginine.
Fan housing for a plurality of fan modules, in particular for a radiator of a motor vehicle, comprising a first fan mounting which has a first flow-off region, comprising at least one further fan mounting which has a further flow-off region, comprising an intermediate region which interconnects mutually adjacent edge regions (6, 7) of the first and the further fan mountings (2, 3), characterised in that a shielding device is provided in the intermediate region and separates the first and a further flow-off region from one another, the shielding device being formed as a partition wall portion insertable into the fan housing, the partition wall portion extending in the intermediate region over an angle segment of 10° to 135°, in particular of 30° to 60°, around the first and/or further fan mounting (2, 3).
A method of processing communication signals, the method comprises: receiving a communication signal in a time domain; converting the communication signal to a frequency domain; providing a plurality of resource blocks based on the communication signal in the frequency domain, the plurality of resource blocks including a first resource block and a second resource block; selecting a first plurality of pilot signals from the first resource block and a second plurality of pilot signals from the second resource block; determining a first set of phase and amplitude differences among the first plurality of pilot signals; determining a second set of phase and amplitude differences among the second plurality of pilot signals; determining a third set of phase and amplitude differences between the first plurality of pilot signals and the second plurality of pilot signals; generating a first waveform by using at least the first and third set of phase and amplitude differences to adjust one of the first plurality of pilot signals; applying a smoothing filter against the first waveform to generate a second waveform; generating a third waveform by using at least the first and third set of phase and amplitude differences to perform a reverse adjustment to the second waveform; and converting the third waveform from the frequency domain to the time domain. receiving a communication signal in a time domain; converting the communication signal to a frequency domain; providing a plurality of resource blocks based on the communication signal in the frequency domain, the plurality of resource blocks including a first resource block and a second resource block; selecting a first plurality of pilot signals from the first resource block and a second plurality of pilot signals from the second resource block; determining a first set of phase and amplitude differences among the first plurality of pilot signals; determining a second set of phase and amplitude differences among the second plurality of pilot signals; determining a third set of phase and amplitude differences between the first plurality of pilot signals and the second plurality of pilot signals; generating a first waveform by using at least the first and third set of phase and amplitude differences to adjust one of the first plurality of pilot signals; applying a smoothing filter against the first waveform to generate a second waveform; generating a third waveform by using at least the first and third set of phase and amplitude differences to perform a reverse adjustment to the second waveform; and converting the third waveform from the frequency domain to the time domain.
Resistive and capacitive force sensor, comprising: - at least one sensor element having at least a first electrode E1 and a second electrode E2, wherein the sensor element is designed in such manner that when an external force F is applied, an intrinsic electrical capacitance C of the electrode(s) E1 and/or E2 and the electrical resistance R between the first electrode E1 and a second electrode E2 change as a function of a magnitude | F | of the force F; - a first measuring unit which is electrically connected to the first electrode E1 and the second electrode E2, and which is designed and configured to determine the intrinsic electrical capacitance C(t) of the electrode E2, - a second measuring unit which is electrically connected to the first electrode E1 and the second electrode E2, and which is designed and configured to determine the electrical resistance R(t) between the first electrode E1 and a second electrode E2, - an evaluation unit which is designed and configured to determine the magnitude |F(t)| of a force F(t) applied to the outside of the sensor element as a function of a mean value (mean(C[t-Δt, t]) of the determined time-dependent intrinsic capacitance C(t) in a time interval [t-Δt, t] and as a function of a mean value mean(R[t-At, t]) of the determined time-dependent resistance R(t) in the time interval [t-Δt, t]: |F(t)| = C OFFSET -(mean(C[t-Δt, t]), m·mean(R[t -Δt])) where Δt: time period, and t: time for determination; and - an output unit to output and/or display the determined magnitude of the force |F(t)|. - at least one sensor element having at least a first electrode E1 and a second electrode E2, wherein the sensor element is designed in such manner that when an external force F is applied, an intrinsic electrical capacitance C of the electrode(s) E1 and/or E2 and the electrical resistance R between the first electrode E1 and a second electrode E2 change as a function of a magnitude | F | of the force F; - a first measuring unit which is electrically connected to the first electrode E1 and the second electrode E2, and which is designed and configured to determine the intrinsic electrical capacitance C(t) of the electrode E2, - a second measuring unit which is electrically connected to the first electrode E1 and the second electrode E2, and which is designed and configured to determine the electrical resistance R(t) between the first electrode E1 and a second electrode E2, - an evaluation unit which is designed and configured to determine the magnitude |F(t)| of a force F(t) applied to the outside of the sensor element as a function of a mean value (mean(C[t-Δt, t]) of the determined time-dependent intrinsic capacitance C(t) in a time interval [t-Δt, t] and as a function of a mean value mean(R[t-At, t]) of the determined time-dependent resistance R(t) in the time interval [t-Δt, t]: |F(t)| = C OFFSET -(mean(C[t-Δt, t]), m·mean(R[t -Δt])) where Δt: time period, and t: time for determination; and - an output unit to output and/or display the determined magnitude of the force |F(t)|.
A vascular treatment device, comprising: an elongated intraluminal member shaped and dimensioned for passage through blood vessels of a subject, the intraluminal member comprising a sheath and a wire disposed within the sheath, wherein a distal end of the wire is extendable beyond a distal end of the sheath; a first coupler; a handle with a trigger thereon; a motorized drive system comprising a motor disposed in said handle; and characterised by a second coupler a cartridge insertable into said handle; and said motorized drive system in said handle being configured to be coupled to the intraluminal member via said first coupler that is attached to a shaft of said motor disposed in the handle, wherein the first couple is configured to engage with said second coupler which is disposed in said cartridge when the cartridge is inserted into the handle, the second coupler being attached to the wire of the intraluminal member, wherein the motorized drive system is actuatable by said trigger on the handle and is configured to rotate the wire in a first direction, wherein the motorized drive system is further configured to reverse the direction of rotation of the wire. an elongated intraluminal member shaped and dimensioned for passage through blood vessels of a subject, the intraluminal member comprising a sheath and a wire disposed within the sheath, wherein a distal end of the wire is extendable beyond a distal end of the sheath; a first coupler; a handle with a trigger thereon; a motorized drive system comprising a motor disposed in said handle; and characterised by a second coupler a cartridge insertable into said handle; and said motorized drive system in said handle being configured to be coupled to the intraluminal member via said first coupler that is attached to a shaft of said motor disposed in the handle, wherein the first couple is configured to engage with said second coupler which is disposed in said cartridge when the cartridge is inserted into the handle, the second coupler being attached to the wire of the intraluminal member, wherein the motorized drive system is actuatable by said trigger on the handle and is configured to rotate the wire in a first direction, wherein the motorized drive system is further configured to reverse the direction of rotation of the wire.
A method comprising at a device: choosing k item categories in accordance with a content discovery process from multiples categories representing items, the number k of chosen categories being based on a display type, so as to have a display region per chosen category, another display region being used for all combinations of said multiple categories comprising none of said chosen categories, the content discovery process including: - a multi-way search process that tracks selections of the another display region performed via a user interface and removes chosen categories not corresponding with all the another display region selections performed so far from future display in the display regions during the content discovery process, and - an item category choosing process performed by the device that chooses at least one first item category of said multiple categories that has not been displayed in the display regions and was not previously removed for future display during the multi-way search process. choosing k item categories in accordance with a content discovery process from multiples categories representing items, the number k of chosen categories being based on a display type, so as to have a display region per chosen category, another display region being used for all combinations of said multiple categories comprising none of said chosen categories, the content discovery process including: - a multi-way search process that tracks selections of the another display region performed via a user interface and removes chosen categories not corresponding with all the another display region selections performed so far from future display in the display regions during the content discovery process, and - an item category choosing process performed by the device that chooses at least one first item category of said multiple categories that has not been displayed in the display regions and was not previously removed for future display during the multi-way search process. - a multi-way search process that tracks selections of the another display region performed via a user interface and removes chosen categories not corresponding with all the another display region selections performed so far from future display in the display regions during the content discovery process, and - an item category choosing process performed by the device that chooses at least one first item category of said multiple categories that has not been displayed in the display regions and was not previously removed for future display during the multi-way search process.