mhurhangee/ep-ind-claims huggingface dataset:
A method of a user equipment, UE, the method comprising: detecting that an aggregate of calculated uplink transmit power of a plurality of frequency-division multiplexing, FDM,-based uplink transmissions of the UE over corresponding wireless connections (112, 114) with respective wireless access network nodes (104, 108) exceeds a threshold; in response to the detecting, adjusting a power of the plurality of FDM-based uplink transmissions of the UE over the corresponding wireless connections with the respective wireless access network nodes; wherein the uplink transmissions are concurrent uplink transmissions and wherein a first of the wireless access network nodes provides carrier aggregation having component carriers, and a subset of the concurrent uplink transmissions include plural uplink transmissions over wireless connections on the component carriers of the first wireless access network node, and a remainder of the concurrent uplink transmissions include an uplink transmission over a wireless connection (112, 114) with a second of the wireless access network nodes (104, 108), wherein the second of the wireless access network nodes does not support carrier aggregation. detecting that an aggregate of calculated uplink transmit power of a plurality of frequency-division multiplexing, FDM,-based uplink transmissions of the UE over corresponding wireless connections (112, 114) with respective wireless access network nodes (104, 108) exceeds a threshold; in response to the detecting, adjusting a power of the plurality of FDM-based uplink transmissions of the UE over the corresponding wireless connections with the respective wireless access network nodes; wherein the uplink transmissions are concurrent uplink transmissions and wherein a first of the wireless access network nodes provides carrier aggregation having component carriers, and a subset of the concurrent uplink transmissions include plural uplink transmissions over wireless connections on the component carriers of the first wireless access network node, and a remainder of the concurrent uplink transmissions include an uplink transmission over a wireless connection (112, 114) with a second of the wireless access network nodes (104, 108), wherein the second of the wireless access network nodes does not support carrier aggregation.
Method for opening a wing element, in particular a door, of a motor vehicle, in which the presence of an object in an opening region in which the wing element can be moved during the opening process is sensed by means of a sensing apparatus, and a movement of the wing element during the opening in the opening region is limited by a limiting apparatus as a function of the presence of the object, characterized in that the presence of the object is sensed by means of an ultrasonic sensor of the sensing apparatus in a predetermined close area which adjoins the ultrasonic sensor in the opening region, on the basis of an ultrasonic signal which is emitted by the ultrasonic sensor and reflected by the object, and in that in addition to the presence of the object in the close area is checked, whether at least one echo of the emitted ultrasonic signal is received by means of the ultrasonic sensor, and in that the object is present in the close area and the at least one echo is not received, the opening of the wing element is limited in such a way that the wing element remains in a closed position, and/or in that the object is present in the close area and the at least one echo is received, a distance between the wing element and the object is determined on the basis of the at least one echo and the opening of the wing element is limited on the basis of the determined distance.
A photoelectric transducer comprising: a substrate (1, 5) constituted by a flexible elastic web or foil, the substrate including a planar rear surface and a front surface with a surface pattern of a plurality of repeating raised and depressed surface portions which extend in at least one direction; thereon a rear side electrode (2, A) provided on the front surface of the substrate and conforming in shape to the front surface of the substrate; thereon a photoelectric active layer conforming in shape to the front surface of the substrate and having the pattern of repeating raised and depressed surface portions which extend in the at least one direction and with an area of the front facing surface of the photoelectric active layer that is larger than the surface area occupied by the rear smooth surface of the substrate in a relaxed state; thereon a front side electrode (4, B) provided on a front surface of the photoelectric active layer; thereon a front protection layer comprising a transparent, elastic silicone web or foil provided above the upper surface of the photoelectric active layer; where the photoelectric active layer is less stretchable and less compressible than the substrate (1, 5), thereby allowing the substrate (1, 5) to change shape while maintaining the area of the front surface of the photoelectric transducer, wherein said substrate (1, 5) is constituted by a silicone web or foil and the front surface of the substrate is an argon plasma treated front surface having microscopic quartz crystals (SiO 2) or other quartz grains/structures. a substrate (1, 5) constituted by a flexible elastic web or foil, the substrate including a planar rear surface and a front surface with a surface pattern of a plurality of repeating raised and depressed surface portions which extend in at least one direction; thereon a rear side electrode (2, A) provided on the front surface of the substrate and conforming in shape to the front surface of the substrate; thereon a photoelectric active layer conforming in shape to the front surface of the substrate and having the pattern of repeating raised and depressed surface portions which extend in the at least one direction and with an area of the front facing surface of the photoelectric active layer that is larger than the surface area occupied by the rear smooth surface of the substrate in a relaxed state; thereon a front side electrode (4, B) provided on a front surface of the photoelectric active layer; thereon a front protection layer comprising a transparent, elastic silicone web or foil provided above the upper surface of the photoelectric active layer; where the photoelectric active layer is less stretchable and less compressible than the substrate (1, 5), thereby allowing the substrate (1, 5) to change shape while maintaining the area of the front surface of the photoelectric transducer, wherein said substrate (1, 5) is constituted by a silicone web or foil and the front surface of the substrate is an argon plasma treated front surface having microscopic quartz crystals (SiO 2) or other quartz grains/structures.
A control device for a vehicle (HV; 400) provided with a driving force source (1; 401; 501) for supplying a travel driving force to a drive wheel (6L, 6R; 406L, 406R; 505L, 505R) and capable of switching between a travel mode and a neutral mode, said control device characterized by being configured to, when an accelerator is on upon restarting the driving force source (1; 401; 501) in the travel mode, by the time the vehicle (HV; 400) comes to a standstill after the driving force source (1; 401; 501) is manually caused to stop while the vehicle is traveling, implement a first control in which the travel driving force is gradually increased; and when the accelerator is on upon switching to the travel mode following restarting of the driving force source in the neutral mode, by the time when the vehicle (HV; 400) comes to a standstill after the driving force source (1; 401; 501) is manually caused to stop while the vehicle is traveling, implement a second control in which the travel driving force is increased, the first control increasing the travel driving force less than the second control. said control device characterized by being configured to, when an accelerator is on upon restarting the driving force source (1; 401; 501) in the travel mode, by the time the vehicle (HV; 400) comes to a standstill after the driving force source (1; 401; 501) is manually caused to stop while the vehicle is traveling, implement a first control in which the travel driving force is gradually increased; and when the accelerator is on upon switching to the travel mode following restarting of the driving force source in the neutral mode, by the time when the vehicle (HV; 400) comes to a standstill after the driving force source (1; 401; 501) is manually caused to stop while the vehicle is traveling, implement a second control in which the travel driving force is increased, when an accelerator is on upon restarting the driving force source (1; 401; 501) in the travel mode, by the time the vehicle (HV; 400) comes to a standstill after the driving force source (1; 401; 501) is manually caused to stop while the vehicle is traveling, implement a first control in which the travel driving force is gradually increased; and when the accelerator is on upon switching to the travel mode following restarting of the driving force source in the neutral mode, by the time when the vehicle (HV; 400) comes to a standstill after the driving force source (1; 401; 501) is manually caused to stop while the vehicle is traveling, implement a second control in which the travel driving force is increased, the first control increasing the travel driving force less than the second control.
A ceramic metal circuit board comprising a ceramic substrate and metal circuit plates (3, 4) bonded to at least one surface of the ceramic substrate, characterized in that at least one of the metal circuit plates (3, 4) has an area of not less than 100 mm 2 and comprises a concave portion within a range of 1% to 70% of a surface of the at least one of the metal circuit plates (3, 4), wherein the concave portion has a depth of not less than 0.02 mm, has an average minimum diameter d (mm) or an average minimum groove width w (mm) viewed from an upper side, and is provided not less than 3 mm inside from an end of the at least one of the metal circuit plates (3, 4). characterized in that at least one of the metal circuit plates (3, 4) has an area of not less than 100 mm 2 and comprises a concave portion within a range of 1% to 70% of a surface of the at least one of the metal circuit plates (3, 4), wherein the concave portion has a depth of not less than 0.02 mm, has an average minimum diameter d (mm) or an average minimum groove width w (mm) viewed from an upper side, and is provided not less than 3 mm inside from an end of the at least one of the metal circuit plates (3, 4).
An apparatus, comprising: a receiver, adapted for use in a hearing aid, the receiver including a conductive housing and solder terminals; an insulator disposed around at least a portion of the conductive housing of the receiver; an envelope configured to conform around at least a portion of the insulator; and an end-cap attached to the envelope and configured to allow for connection to the solder terminals, wherein the envelope and the end-cap each include a magnetically shielding material and the insulator is adapted to electrically insulate the envelope from the conductive housing. a receiver, adapted for use in a hearing aid, the receiver including a conductive housing and solder terminals; an insulator disposed around at least a portion of the conductive housing of the receiver; an envelope configured to conform around at least a portion of the insulator; and an end-cap attached to the envelope and configured to allow for connection to the solder terminals, wherein the envelope and the end-cap each include a magnetically shielding material and the insulator is adapted to electrically insulate the envelope from the conductive housing.
A non-aqueous electrolyte solution comprising: a non-aqueous solvent containing 30 to 85 % by volume of acetonitrile; a fluorine-containing inorganic lithium salt selected from the group consisting of LiPF 6, LiBF 4, LiAsF 6, Li 2 SiF 6, LiSbF 6, Li 2 B 12 F b H 12-b, wherein b is an integer of 0 to 3, LiN(SO 2 F) 2, or two or more thereof in combination; and a compound represented by following general formula: wherein substituents represented by R 1, R 2, and R 3 are each independently hydrogen atom, an alkyl group having 1 to 4 carbon atoms, a fluorine-substituted alkyl group having 1 to 4 carbon atoms, an alkoxy group having 1 to 4 carbon atoms, a fluorine-substituted alkoxy group having 1 to 4 carbon atoms, phenyl group, cyclohexyl group, nitrile group, nitro group, amino group, N,N'-dimethylamino group, or N,N'-diethylamino group, and two or more among the substituents are hydrogen atoms. a non-aqueous solvent containing 30 to 85 % by volume of acetonitrile; a fluorine-containing inorganic lithium salt selected from the group consisting of LiPF 6, LiBF 4, LiAsF 6, Li 2 SiF 6, LiSbF 6, Li 2 B 12 F b H 12-b, wherein b is an integer of 0 to 3, LiN(SO 2 F) 2, or two or more thereof in combination; and a compound represented by following general formula:
Diplexer for a homodyne FMCW radar unit which is made from two half shells (32, 34) with a structure that comprises - two parallel waveguide channels (36, 38), which are guided in a plane and at a distance (bp), with a square cross-section and each with two terminal waveguide ports (40 a-d), and - a coupling zone from an opening in a partition wall to connect the waveguide channels (36, 38) wherein an electric field of a wave runs approximately along a cross-sectional plane of the waveguide channels (36, 38) and in the plane in which the waveguide channels (36, 38) are guided, and wherein the structure in the area of the coupling zone comprises depressions (48, 50) which are arranged perpendicular to the plane in which the waveguide channels (36, 38) are guided, characterized in that the depressions (48, 50) are cuboid in shape, wherein a ratio of the dimensions of the waveguide channels (36, 38) to the dimensions of the coupling zone and of the depressions (48, 50) is selected such that the diplexer enables a propagation of the H20 mode of the wave in the coupling zone. - two parallel waveguide channels (36, 38), which are guided in a plane and at a distance (bp), with a square cross-section and each with two terminal waveguide ports (40 a-d), and - a coupling zone from an opening in a partition wall to connect the waveguide channels (36, 38)
A method for mounting a connecting end fitting of a tubular flexible pipe for conveying a fluid in a marine environment, said pipe being an unbonded pipe and comprising in particular an internal pressure sheath and at least one tensile armor layer (5, 6) wound with a long pitch around the pressure sheath, said method comprising the following steps: a) a flexible pipe is provided having a pipe end on which the connecting end fitting is to be mounted, b) a stripped pipe portion is formed at said pipe end by removing the outer layer or layers surrounding said at least one tensile armor layer (5,6), c) each armor wire of said at least one tensile armor layer is bent, toward the rear of the flexible pipe, by applying a bending force F to each armor wire, d) said connecting end fitting is connected to said pipe end, said method being characterized in that in step c), said bending force F is applied to each armor wire by means of an application tool which is capable of sliding along the wire and in that in step c), the point of application P of said bending force F moves continuously along said armor wire by gradually moving closer to the point of transition in the vicinity of the zone of bending of the wire. a) a flexible pipe is provided having a pipe end on which the connecting end fitting is to be mounted, b) a stripped pipe portion is formed at said pipe end by removing the outer layer or layers surrounding said at least one tensile armor layer (5,6), c) each armor wire of said at least one tensile armor layer is bent, toward the rear of the flexible pipe, by applying a bending force F to each armor wire, d) said connecting end fitting is connected to said pipe end, said method being characterized in that in step c), said bending force F is applied to each armor wire by means of an application tool which is capable of sliding along the wire and in that in step c), the point of application P of said bending force F moves continuously along said armor wire by gradually moving closer to the point of transition in the vicinity of the zone of bending of the wire.
A computer-implemented method for processing a graph instruction in a directed graph flow computing architecture, wherein the method comprises: detecting whether a first graph instruction has a conditional instruction element; and when the first graph instruction has the conditional instruction element, determining (S302a) that the first graph instruction is a conditional execution instruction, and processing the first graph instruction when both data flow information and control flow information of the first graph instruction are in a ready state, wherein the data flow information includes a left input and a right input, and the control flow information includes a condition input; or when the first graph instruction does not have a conditional instruction element, determining (S302b) that the first graph instruction is a non-conditional execution instruction, and processing the first graph instruction when data flow information of the first graph instruction is in a ready state, wherein the data flow information includes a left input and a right input, characterized in that the conditional instruction element and the control flow information are transmitted through a control bus, and the data flow information is transmitted through a data bus. detecting whether a first graph instruction has a conditional instruction element; and when the first graph instruction has the conditional instruction element, determining (S302a) that the first graph instruction is a conditional execution instruction, and processing the first graph instruction when both data flow information and control flow information of the first graph instruction are in a ready state, wherein the data flow information includes a left input and a right input, and the control flow information includes a condition input; or when the first graph instruction does not have a conditional instruction element, determining (S302b) that the first graph instruction is a non-conditional execution instruction, and processing the first graph instruction when data flow information of the first graph instruction is in a ready state, wherein the data flow information includes a left input and a right input, characterized in that the conditional instruction element and the control flow information are transmitted through a control bus, and the data flow information is transmitted through a data bus.
System for balancing an electric motor of a propulsion system, in particular of an aircraft, with at least one parameter (P1, P2) comprising at least two electric motors (3, 4) and a propulsion member driven in rotation by said electric motors, characterised in that said balancing system comprises a balancing module (12, 13) associated with each electric motor (3, 4), each of the balancing modules (12, 13) being configured to calculate a correction of the speed setpoint (Corr_Cons_V1, Corr_Cons_V2) as a function of a correction factor (F1, F2) of the speed setpoint dependent on said at least one parameter (P1, P2) of the associated electric motor that is intended to be balanced and a speed setpoint (Cons_VH) of the propulsion member.
Well tool device, comprising: - a housing comprising a longitudinal through bore having a first end and a second end; - at least one frangible obstruction device provided inside the longitudinal bore, where fluid flow between the first end and the second end is prevented due to the frangible obstruction device; where the frangible obstruction device comprises a through opening; where the well tool device further comprises an actuation device extending fluid-tight at least into the through opening; where the actuation device comprises an actuation tool connection interface; characterized in that the actuation device comprises a disintegration device; the disintegration device is configured to be at least partially moved into the frangible obstruction device and thereby provide disintegration of the frangible obstruction device, hence allowing fluid flow between the first end and the second end of the through bore. - a housing comprising a longitudinal through bore having a first end and a second end; - at least one frangible obstruction device provided inside the longitudinal bore, where fluid flow between the first end and the second end is prevented due to the frangible obstruction device;
Method for producing a cathode block as a multi-layer block, comprising the steps of a) providing a mixture of starting materials, comprising coke and pitch, wherein the coke comprises two types of coke which have different volume-change properties during carbonisation and/or graphitisation and/or cooling, wherein a first layer optionally contains a further carbonaceous material as the starting material and a second layer contains a fire-resistant hard material, in particular TiB2 as a further starting material, and optionally another carbonaceous material, b) shaping the layers to form a green body and c) carbonising the green body and graphitising the carbonised green body, without it being impregnated beforehand, to obtain a graphitised body, and cooling after graphitisation, wherein the hard material in step a) is present in a monomodal particle size distribution, having a d 50 between 10 and 20 μm, and wherein in step c), after graphitisation, the first layer has a bulk density of a carbon portion of more than 1.68 g/cm 3 and the second layer has a bulk density of more than 1.82 g/cm 3. a) providing a mixture of starting materials, comprising coke and pitch, wherein the coke comprises two types of coke which have different volume-change properties during carbonisation and/or graphitisation and/or cooling, wherein a first layer optionally contains a further carbonaceous material as the starting material and a second layer contains a fire-resistant hard material, in particular TiB2 as a further starting material, and optionally another carbonaceous material, b) shaping the layers to form a green body and c) carbonising the green body and graphitising the carbonised green body, without it being impregnated beforehand, to obtain a graphitised body, and cooling after graphitisation, wherein the hard material in step a) is present in a monomodal particle size distribution, having a d 50 between 10 and 20 μm, and wherein in step c), after graphitisation, the first layer has a bulk density of a carbon portion of more than 1.68 g/cm 3 and the second layer has a bulk density of more than 1.82 g/cm 3.