mhurhangee/ep-ind-claims huggingface dataset:
Battery charger located on board a vehicle, comprising: - a main voltage converter comprising: - at least one transformer comprising at least one primary and at least one secondary, - at least one upstream bridge of driven transistors supplying the primary of the transformer, - at least one downstream bridge of driven transistors supplied by the secondary of the transformer, making it possible when driven in terms of current and/or voltage to generate a first voltage so as to supply a battery to be charged, the downstream bridge comprising at least two branches (Legl, Leg2), - at least one isolation switch linked by way of an inductor to a midpoint (Tl) of a first branch (Legl) of the downstream bridge, making it possible when open to use the downstream bridge to deliver the first voltage, and - a control circuit for the transistors, characterized in that the battery charger furthermore comprises a capacitor disposed between an output of low potential of the downstream bridge and said at least one isolation switch and in that, when the isolation switch is closed, at least said first branch of the downstream bridge is used to generate, by driving all or some of the transistors of the downstream bridge supplied by said battery, a second voltage different from the first voltage. - a main voltage converter comprising: - at least one transformer comprising at least one primary and at least one secondary, - at least one upstream bridge of driven transistors supplying the primary of the transformer, - at least one downstream bridge of driven transistors supplied by the secondary of the transformer, making it possible when driven in terms of current and/or voltage to generate a first voltage so as to supply a battery to be charged, the downstream bridge comprising at least two branches (Legl, Leg2), - at least one transformer comprising at least one primary and at least one secondary, - at least one upstream bridge of driven transistors supplying the primary of the transformer, - at least one downstream bridge of driven transistors supplied by the secondary of the transformer, making it possible when driven in terms of current and/or voltage to generate a first voltage so as to supply a battery to be charged, the downstream bridge comprising at least two branches (Legl, Leg2), - at least one isolation switch linked by way of an inductor to a midpoint (Tl) of a first branch (Legl) of the downstream bridge, making it possible when open to use the downstream bridge to deliver the first voltage, and - a control circuit for the transistors,
Method for removably coupling a case to a frame of a motorcycle by means of a case assembly, the case assembly comprising a frame for coupling to the motorcycle and a case including active coupling means for allowing removable coupling of the case to the frame of the motorcycle, the active coupling means including U-shaped elements being near the upper edge of a coupling wall of the caste, and the case assembly further including passive coupling means (14, 15) being near the lower edge of the coupling wall of the case, and being between the case and the frame in a distance from the U-shaped elements, the method comprising the steps of: - moving the case downwards against the frame and thereby coupling the passive coupling means (14, 15) to each other, - accommodating a complementary element of the frame in the U-shaped elements being in a non-active position, - moving the U-shaped elements between the non-active position and an active rotated position to secure therein said element, wherein the coupling of the passive coupling means (14, 15) to each other provides a position reference for the case, and in the non-active position the U-shaped elements look outward from the coupling wall of the case so that the complementary element can freely enter or exit the tube formed by the U-shaped elements, and the movement of the U-shaped elements between the non-active to the active rotated position is caused by pushing the case downward against the frame. - moving the case downwards against the frame and thereby coupling the passive coupling means (14, 15) to each other, - accommodating a complementary element of the frame in the U-shaped elements being in a non-active position, - moving the U-shaped elements between the non-active position and an active rotated position to secure therein said element, wherein the coupling of the passive coupling means (14, 15) to each other provides a position reference for the case, and in the non-active position the U-shaped elements look outward from the coupling wall of the case so that the complementary element can freely enter or exit the tube formed by the U-shaped elements, and the movement of the U-shaped elements between the non-active to the active rotated position is caused by pushing the case downward against the frame.
Method for the automated parking of a motor vehicle, comprising the steps: - specification of a parking position within a parking area on the part of a user with the aid of a specification device (8, 13), - automatic parking of the motor vehicle at the parking position by a control device, characterised in that the specification device is operated by the user such that by means of the specification device a light pattern which has an unambiguous orientation is projected onto the parking area, wherein the light pattern is detected by a detecting device of the motor vehicle, and the parking position is determined depending on a lighting position at which the light pattern illuminates the parking area, and wherein by means of the orientation of the light pattern an orientation is specified for the motor vehicle in which it should park at the parking position. - specification of a parking position within a parking area on the part of a user with the aid of a specification device (8, 13), - automatic parking of the motor vehicle at the parking position by a control device,
Hydraulic control arrangement for an arrangement of hydraulically couplable mobile machines (2, 4), having an interface (58; 158) for the hydraulic coupling of the machines (2, 4), and having a hydraulic machine for supplying pressure medium to at least one hydraulic consumer (6, 8) of the machines (2, 4) in accordance with requirements, wherein an electronic control device is provided, by means of which it is possible, in accordance with a load of the consumer (6, 8), to generate an electronic control signal, which can be converted by a transducer (56; 156) of the control arrangement into a hydraulic control signal, in accordance with which the hydraulic machine can be operated, characterized in that the transducer (56; 156) and the hydraulic machine are connected either on the near side or the far side of the interface (58; 158), and in that they can be arranged on the same machine.
A space body with at least two space modules, which are Interchangeably interconnectable, comprising a) at least one closable connection opening on each of the space modules, via which a passage is provided when connecting the space modules, b) at least one coupling device respectively, which connects the space modules, c) at least one supply interface respectively for coupling a supply line of the space modules, and d) resources distributed decentrally in each of the space modules to supply the space body, whereby resources are exchanged between the space modules and/or resources are consumed via supply lines. characterized in that e) the supply interface Is magnetically and/or electromagnetically couplable and comprises a dockable multiple connector, which is provided for simultaneous use with different supply lines. a) at least one closable connection opening on each of the space modules, via which a passage is provided when connecting the space modules, b) at least one coupling device respectively, which connects the space modules, c) at least one supply interface respectively for coupling a supply line of the space modules, and d) resources distributed decentrally in each of the space modules to supply the space body, whereby resources are exchanged between the space modules and/or resources are consumed via supply lines. characterized in that e) the supply interface Is magnetically and/or electromagnetically couplable and comprises a dockable multiple connector, which is provided for simultaneous use with different supply lines.
A connector for connecting first and second parts of an apparatus, said apparatus being a helmet, the connector comprising: an inner region comprising a first anchor point on a first side thereof, the first anchor point being configured to connect the connector to the first part of the apparatus, the inner region further comprising a sliding surface on a second side thereof, opposite the first side, the sliding surface being configured to provide a low friction interface between the inner region and an opposing surface of the second part of the apparatus; and characterised by: two, or more, arms extending from an edge of the inner region, the arms being formed from a deformable material and configured to connect the connector to the second part of the apparatus.
Device for testing a concentrating photovoltaic module comprising a plurality of submodules each comprising a plurality of assemblies of a photovoltaic cell and of a concentrator that is arranged with respect to the cell to concentrate onto said cell radiation arriving at normal incidence, said testing device comprising: - a plurality of light sources; and - a plurality of parabolic mirrors that are coupled to the light sources so as to redirect the light generated by each source in a plurality of almost collimated light beams towards the module to be tested, in a direction that is perpendicular to the surface of said module; each light source comprises: - an optical system having an optical axis and comprising two parallel lenses (21, 22) that are arranged on either side of a diaphragm; - a lamp that is arranged on said optical axis; - a reflector that is arranged on said optical axis, on the side opposite the optical system (21, 22, 23) with respect to the lamp, said reflector being translatably movable along the optical axis, so as to allow the light intensity delivered by the source to be adjusted by varying the distance between the reflector and the lamp; and - a casing containing the optical system (21, 22, 23), the lamp and the reflector and comprising an exit orifice for the light beam, said orifice being arranged on the optical axis of the optical system (21, 22, 23). - a plurality of light sources; and - a plurality of parabolic mirrors that are coupled to the light sources so as to redirect the light generated by each source in a plurality of almost collimated light beams towards the module to be tested, in a direction that is perpendicular to the surface of said module; - an optical system having an optical axis and comprising two parallel lenses (21, 22) that are arranged on either side of a diaphragm; - a lamp that is arranged on said optical axis; - a reflector that is arranged on said optical axis, on the side opposite the optical system (21, 22, 23) with respect to the lamp, said reflector being translatably movable along the optical axis, so as to allow the light intensity delivered by the source to be adjusted by varying the distance between the reflector and the lamp; and - a casing containing the optical system (21, 22, 23), the lamp and the reflector and comprising an exit orifice for the light beam, said orifice being arranged on the optical axis of the optical system (21, 22, 23).
Pharmaceutical composition characterized by the fact that it comprises one or more metal phenolates of general formula I: wherein R is, in each occurrence separately, a hydrogen atom, an alkyl group, a prenyl group, an acetyl group, a benzoyl group, or a metal cation; Y is, at each occurrence separately, a hydrogen atom, an alkyl group, a prenyl group, an acetyl group, a benzoyl group, or a metal cation; X can be, in each case separately, 1, 2 or 3; Mz+ is, in each separate occurrence, a monovalent cation, a divalent cation, or a trivalent cation, as an anti-tumor adjuvant, and at least one anti-tumor drug, and one or more of a vehicle, excipient, physiologically acceptable diluent or solvent, wherein said anti-tumor drug is paclitaxel or etoposide. R is, in each occurrence separately, a hydrogen atom, an alkyl group, a prenyl group, an acetyl group, a benzoyl group, or a metal cation; Y is, at each occurrence separately, a hydrogen atom, an alkyl group, a prenyl group, an acetyl group, a benzoyl group, or a metal cation; X can be, in each case separately, 1, 2 or 3; Mz+ is, in each separate occurrence, a monovalent cation, a divalent cation, or a trivalent cation, as an anti-tumor adjuvant, and at least one anti-tumor drug, and one or more of a vehicle, excipient, physiologically acceptable diluent or solvent, wherein said anti-tumor drug is paclitaxel or etoposide.
A method of managing interference in a wireless communication network, the method performed by a first Transmit-Receive Point, TRP, of the wireless communication network, and comprising: transmitting a first downlink signal to an electronic device using a transmission beam, the first downlink signal having a first downlink Angle of Departure, AoD, defined with respect to the first TRP; receiving a first uplink pilot signal from the electronic device, wherein a first Angle of Arrival, AoA, of the first uplink pilot signal, defined with respect to the first TRP, is associated with the first downlink AoD; receiving a second uplink pilot signal from the electronic device, the second uplink pilot signal associated with an uplink AoD defined with respect to the electronic device, wherein the uplink AoD corresponds to a direction of reception at the electronic device of a second downlink signal from a second TRP of the wireless communication network and of a first leakage signal resulting from the transmission beam; and reconfiguring the transmission beam to alter the first leakage signal based on the received first uplink pilot signal and the received second uplink pilot signal. transmitting a first downlink signal to an electronic device using a transmission beam, the first downlink signal having a first downlink Angle of Departure, AoD, defined with respect to the first TRP; receiving a first uplink pilot signal from the electronic device, wherein a first Angle of Arrival, AoA, of the first uplink pilot signal, defined with respect to the first TRP, is associated with the first downlink AoD; receiving a second uplink pilot signal from the electronic device, the second uplink pilot signal associated with an uplink AoD defined with respect to the electronic device, wherein the uplink AoD corresponds to a direction of reception at the electronic device of a second downlink signal from a second TRP of the wireless communication network and of a first leakage signal resulting from the transmission beam; and reconfiguring the transmission beam to alter the first leakage signal based on the received first uplink pilot signal and the received second uplink pilot signal.
Method for back injection moulding a layered electrode for the production of a contact sensor, wherein the layered electrode has at least one region that is not to be back injection moulded, said method comprising the following steps: - covering the region of the layered electrode that is not to be back injection moulded with a sacrificial film (3, 31, 32), - introducing the layered electrode and the sacrificial film (3, 31, 32) into a back injection moulding tool, - back injection moulding the layered electrode and the sacrificial film (3, 31, 32), - forming the contact sensor from the produced back injection moulded body. - covering the region of the layered electrode that is not to be back injection moulded with a sacrificial film (3, 31, 32), - introducing the layered electrode and the sacrificial film (3, 31, 32) into a back injection moulding tool, - back injection moulding the layered electrode and the sacrificial film (3, 31, 32), - forming the contact sensor from the produced back injection moulded body.
A method of manufacturing a polymer electrolyte fuel cell material comprising: - a smoothening step of smoothening a plate material composed of an Fe-base alloy, Ni-base alloy, Ti or Ti-base alloy so as to attain a surface (42,43) roughness as expressed in R max of 1.5 μm or less by being rolled under a draft of 5 to 50% using a pair of rolls (46, 46) having a surface roughness of 1.5 μm or less as expressed in R max; and - a coverage step of forming a cover film (44a, 44b) of a noble metal so as to cover at least either one of the top surface and back surface of said plate material. - a smoothening step of smoothening a plate material composed of an Fe-base alloy, Ni-base alloy, Ti or Ti-base alloy so as to attain a surface (42,43) roughness as expressed in R max of 1.5 μm or less by being rolled under a draft of 5 to 50% using a pair of rolls (46, 46) having a surface roughness of 1.5 μm or less as expressed in R max; and - a coverage step of forming a cover film (44a, 44b) of a noble metal so as to cover at least either one of the top surface and back surface of said plate material.
A flow cytometry method for evaluating a biological material sample for unassociated virus-size particles of a viral type selected from the group consisting of an adenovirus viral type and an adeno-associated virus viral type, the method comprising: subjecting to flow cytometry a fluid sample comprising at least a portion of the biological material sample, wherein the fluid sample comprises a fluorescent antibody stain capable of binding, directly or indirectly, with an epitope of the viral type, the flow cytometry comprising: flowing the fluid sample through a flow cell of a flow cytometer; subjecting the fluid sample flowing through the flow cell to excitation radiation capable of causing a fluorescent emission response from the fluorescent antibody stain; and detecting radiation from the flow cell within a wavelength range of the fluorescent emission and evaluating the detected radiation to identify detection events indicative of passage through the flow cell of unassociated labeled particles of virus size including a said virus-size particle of the viral type bound with a portion of the fluorescent antibody stain; wherein the fluid sample as fed to the flow cytometer comprises a concentration of the fluorescent antibody stain free in solution and not bound in the unassociated labeled particles in a range of from 0.5 micrograms per milliliter to 10 micrograms per milliliter and a total concentration of the florescent antibody stain in a range of from 0.5 microgram per milliliter to 10 micrograms per milliliter. flowing the fluid sample through a flow cell of a flow cytometer; subjecting the fluid sample flowing through the flow cell to excitation radiation capable of causing a fluorescent emission response from the fluorescent antibody stain; and detecting radiation from the flow cell within a wavelength range of the fluorescent emission and evaluating the detected radiation to identify detection events indicative of passage through the flow cell of unassociated labeled particles of virus size including a said virus-size particle of the viral type bound with a portion of the fluorescent antibody stain; wherein the fluid sample as fed to the flow cytometer comprises a concentration of the fluorescent antibody stain free in solution and not bound in the unassociated labeled particles in a range of from 0.5 micrograms per milliliter to 10 micrograms per milliliter and a total concentration of the florescent antibody stain in a range of from 0.5 microgram per milliliter to 10 micrograms per milliliter.
A method for adjusting intercarrier load among activated Component Carriers, CCs, of a single base station, comprising: acquiring Physical Resource Block, PRB, usage rate of each CC, and determining a source carrier, of which a load is required to be adjusted, according to the PRB usage rate; determining unused PRBs of each activated CC, and determining a target carrier according to the unused PRBs; determining a User Equipment, UE, to be adjusted according to the source carrier and the target carrier, and determining a bearer, of which a load is required to be adjusted, according to resource information of each bearer of the UE to be adjusted; and adjusting the load of the determined bearer according to the source carrier and the target carrier. acquiring Physical Resource Block, PRB, usage rate of each CC, and determining a source carrier, of which a load is required to be adjusted, according to the PRB usage rate; determining unused PRBs of each activated CC, and determining a target carrier according to the unused PRBs; determining a User Equipment, UE, to be adjusted according to the source carrier and the target carrier, and determining a bearer, of which a load is required to be adjusted, according to resource information of each bearer of the UE to be adjusted; and adjusting the load of the determined bearer according to the source carrier and the target carrier.
A lens array comprising: a plurality of lens assembly members, each of the lens assembly members including a plurality of lenses arranged therein, the lens assembly members being arranged so that an optical axis of each of the lenses of one of the lens assembly members is aligned with an optical axis of corresponding one of the lenses of another of the lens assembly members, the lenses of each of the lens assembly members being arranged in a plurality of rows extending in a direction perpendicular to the optical axes; and a light blocking member including a plurality of apertures arranged therein, the light blocking member being arranged so that the optical axis of each of the lenses passes through each of the apertures, the lens array is characterized in that the lens assembly members and the light blocking member are arranged so that the following relationship is satisfied: PX 2 2 + PY 4 2 ≤ RA LO − F F where PY is a pitch of the lenses arranged in one row, PX is a pitch of the rows, F is a focal length of each of the lenses, LO is a distance between each of the lenses and an object surface thereof, and RA is a distance between the optical axis and an inner surface of the aperture, and in that each of the lenses is arranged to overlap with each adjacent lens in each adjacent row, so that the lens is away from each adjacent lens in each adjacent row by a distance PN smaller than a double of a distance RL between the optical axis of the lens and an outer circumference of the lens, PN < 2RL.