mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, the electronic device comprising - a plurality of LEDs, - a driving unit for applying a driving algorithm for driving the LEDs during normal operation, - the electronic device comprising a measurement unit characterized in that the measurement unit comprises an internal current source connectable, sequentially, to each LED of the plurality of LEDs, the measurement unit being adapted for determining the forward voltage of each LED by imposing a test current of said internal current source to each LED, sequentially, during a limited amount of time in order not to disturb the operation mode, and being adapted for using the forward voltage of the LED being tested for determining environmental effects and/or aging effects on the LED. - a plurality of LEDs, - a driving unit for applying a driving algorithm for driving the LEDs during normal operation, - the electronic device comprising a measurement unit characterized in that the measurement unit comprises an internal current source connectable, sequentially, to each LED of the plurality of LEDs, the measurement unit being adapted for determining the forward voltage of each LED by imposing a test current of said internal current source to each LED, sequentially, during a limited amount of time in order not to disturb the operation mode, and being adapted for using the forward voltage of the LED being tested for determining environmental effects and/or aging effects on the LED.
A complex composition for tissue engineering or a tissue regeneration device, comprising: at least one bone marrow mesenchymal stem cell; an effective amount of aspirin; a substrate; and at least one CD4 + CD25 + Foxp3 + regulatory T cell. at least one bone marrow mesenchymal stem cell; an effective amount of aspirin; a substrate; and at least one CD4 + CD25 + Foxp3 + regulatory T cell.
A terminal apparatus comprising: an acquisition unit configured to acquire control information for determining uplink transmission power; and a communication control unit configured to control the uplink transmission power on the basis of the control information, wherein the control information includes gain-related information about an antenna gain in a case where a beamforming process is performed; wherein the gain-related information includes information about a downlink transmission antenna gain in a case where a downlink beamforming process is performed; wherein the gain-related information includes information about an uplink reception antenna gain in a case where an uplink beamforming process is performed; and wherein the information about the uplink reception antenna gain includes information indicating a difference between the uplink reception antenna gain and a downlink transmission antenna gain. an acquisition unit configured to acquire control information for determining uplink transmission power; and a communication control unit configured to control the uplink transmission power on the basis of the control information, wherein the control information includes gain-related information about an antenna gain in a case where a beamforming process is performed; wherein the gain-related information includes information about a downlink transmission antenna gain in a case where a downlink beamforming process is performed; wherein the gain-related information includes information about an uplink reception antenna gain in a case where an uplink beamforming process is performed; and wherein the information about the uplink reception antenna gain includes information indicating a difference between the uplink reception antenna gain and a downlink transmission antenna gain.
A method for fabricating a mechanical interface for connecting a biological body segment to a wearable device, comprising the steps of: a) compiling a data set of features corresponding to a biological body segment; b) processing the compiled data set to thereby form a representation of the body segment; c) quantitatively mapping the representation of the biological body segment to form a digital representation of a mechanical interface shape and a mechanical interface impedance; and d) fabricating a mechanical interface that includes a mechanical interface shape and a mechanical interface impedance based on the digital representation to thereby form the mechanical interface for connecting the biological body segment to the wearable device. a) compiling a data set of features corresponding to a biological body segment; b) processing the compiled data set to thereby form a representation of the body segment; c) quantitatively mapping the representation of the biological body segment to form a digital representation of a mechanical interface shape and a mechanical interface impedance; and d) fabricating a mechanical interface that includes a mechanical interface shape and a mechanical interface impedance based on the digital representation to thereby form the mechanical interface for connecting the biological body segment to the wearable device.
A network node, comprising: a processing unit configured to: group a plurality of UEs (220-1, 220-2, 220-3, 220-4) into at least a first UE group and a second UE group; assign a mutually orthogonal pilot sequence to each UE (220-1, 220-2) comprised in the first UE group; assign a mutually orthogonal pilot sequence to each UE (220-3, 220-4) comprised in the second UE group; and assign a resource-offset to each of the UEs (220-1, 220-2, 220-3, 220-4) comprised in each UE group (260, 270), by which each UE (220-1, 220-2, 220-3, 220-4) is allowed to start its transmission sub-frame in its Transmission Time Interval, TTI, wherein the resource offset comprises a time offset or a frequency offset; and a transmitter configured to transmit a pilot sequence index and the resource-offset to each UE (220-1, 220-2, 220-3, 220-4); wherein the processing unit is further configured to assign and transmit a partial blanking pattern sequence to the UEs (220-1, 220-2) comprised in at least one of the UE groups. a processing unit configured to: group a plurality of UEs (220-1, 220-2, 220-3, 220-4) into at least a first UE group and a second UE group; assign a mutually orthogonal pilot sequence to each UE (220-1, 220-2) comprised in the first UE group; assign a mutually orthogonal pilot sequence to each UE (220-3, 220-4) comprised in the second UE group; and assign a resource-offset to each of the UEs (220-1, 220-2, 220-3, 220-4) comprised in each UE group (260, 270), by which each UE (220-1, 220-2, 220-3, 220-4) is allowed to start its transmission sub-frame in its Transmission Time Interval, TTI, wherein the resource offset comprises a time offset or group a plurality of UEs (220-1, 220-2, 220-3, 220-4) into at least a first UE group and a second UE group; assign a mutually orthogonal pilot sequence to each UE (220-1, 220-2) comprised in the first UE group; assign a mutually orthogonal pilot sequence to each UE (220-3, 220-4) comprised in the second UE group; and assign a resource-offset to each of the UEs (220-1, 220-2, 220-3, 220-4) comprised in each UE group (260, 270), by which each UE (220-1, 220-2, 220-3, 220-4) is allowed to start its transmission sub-frame in its Transmission Time Interval, TTI, wherein the resource offset comprises a time offset or a frequency offset; and a transmitter configured to transmit a pilot sequence index and the resource-offset to each UE (220-1, 220-2, 220-3, 220-4); wherein the processing unit is further configured to assign and transmit a partial blanking pattern sequence to the UEs (220-1, 220-2) comprised in at least one of the UE groups.
A coated high-temperature superconducting wire comprising: a high-temperature superconducting wire (2, 2') covered by an insulating layer, wherein the high-temperature superconducting wire (2, 2 ') has a rectangular cross section, and the insulating layer is an electrodeposited film made of block copolymerized polyimide containing a siloxane bond in a polyimide main chain and having a molecule with an anionic group. a high-temperature superconducting wire (2, 2') covered by an insulating layer, wherein the high-temperature superconducting wire (2, 2 ') has a rectangular cross section, and the insulating layer is an electrodeposited film made of block copolymerized polyimide containing a siloxane bond in a polyimide main chain and having a molecule with an anionic group.
An emergency stop system for a hybrid excavator comprising: an emergency switch notifying of equipment abnormality and emergency situation occurrence; an emergency stop unit including a first contact which is turned on in a normal operation state to provide an input power supply to a hybrid controller (104, S304) and an engine controller and is turned off when the emergency switch is pressed to intercept the input power supply to the hybrid controller (104, S340) and the engine controller, and a second contact which is turned on when the emergency switch is pressed to provide the input power supply through another path; and an energy discharge unit connected to the second contact of the emergency stop unit to discharge energy of an energy storage device by the input power supply applied thereto through the second contact when the input power supply to the hybrid controller and the engine controller is intercepted. an emergency switch notifying of equipment abnormality and emergency situation occurrence; an emergency stop unit including a first contact which is turned on in a normal operation state to provide an input power supply to a hybrid controller (104, S304) and an engine controller and is turned off when the emergency switch is pressed to intercept the input power supply to the hybrid controller (104, S340) and the engine controller, and a second contact which is turned on when the emergency switch is pressed to provide the input power supply through another path; and an energy discharge unit connected to the second contact of the emergency stop unit to discharge energy of an energy storage device by the input power supply applied thereto through the second contact when the input power supply to the hybrid controller and the engine controller is intercepted.
A spinner toy comprising top and lower button covers (6,7) and a rotating element of a given shape with a centrally installed means of rotation, which is mounted in the central hole of the rotating element, wherein the outer surface of the body of the means of rotation is attached to the rotating element the top and lower button covers (6, 7) are connected to each other through the means of rotation and made with the possibility of holding them between the user's fingers, while the rotating element is equipped with symmetrically placed massive elements and is made with the possibility of free rotation around its central axis, the rotating element is made centrally balanced with respect to the central axis of rotation, and the means of rotation is made in the form of a ball bearing and screw converter of reciprocating motion into unidirectional rotational motion of the rotating element, while the housing of the ball bearing and screw converter is a hollow sleeve, the inner surface of which is provided with a helical groove of a given profile, and in the lower end of the hollow sleeve a rotation bearing is mounted, closed by the lower button cover, and in the inner ring of the rotation bearing a guide rod is mounted, the upper end of which contains a blind cavity and is kinematically connected to a pusher, which is located on the upper end of the hollow sleeve and is designed to slide along the guide rod, wherein the pusher is made in the form of a hollow cylinder, in the lower end of which a thrust bearing is installed; top button cover is mounted in the upper end of the pusher, being made removable, and under it there is a spring, one end of which is recessed into the blind cavity of the guide rod, and the other rests against the top button cover, while the spring is made with the possibility of returning the pusher to the initial upper position after the user has removed the load from the top button cover when the rotating element rotates.
A method of manufacturing a cold-rolled steel sheet in which a hot-rolled steel sheet which has the composition consisting of, by mass%, 0.10 to 0.30 C, 0.2 or more Mn, 0.01 or more Ni, 0.5 to 2.5 Mn+Ni, 1.2 to 9.0 Cr, 2.0 or less Si, 0. 5 or less Cu, 0.30 or less Ti, and Fe and unavoidable impurities as a balance and has a tensile strength of 1000 MPa or less is subjected to pickling and, thereafter, is subjected to cold rolling at a total rolling reduction of 60 % or more thus forming a cold-rolled steel sheet, and final continuous annealing treatment is performed at a soaking temperature of 750 °C or above and at a cooling rate of 3 °C/s to 100 °C/s thus manufacturing a cold-rolled steel sheet having a tensile strength of 1280 MPa or more, breaking elongation of 3 % or more and a thickness of 0.05 to 0.60 mm.
A battery cell arrangement, comprising: a plurality of battery cells (10, 10'), each battery cell having two terminals; a plurality of interconnection elements, each interconnection element electrically interconnecting a terminal of a battery cell (10, 10') with a terminal of a further battery cell (10, 10'), wherein the interconnection elements are formed of a terminal of the battery cell and a terminal of an adjacent battery cell, which are bent towards each other; a plurality of heat spreader plates, each heat spreader plate arranged between two adjacent battery cells (10, 10'); wherein at least one heat spreader plate between two adjacent battery cells (10, 10') has an interface element protruding from a body of the heat spreader plate; wherein the interface element is formed of a bent part of the heat spreader plate; wherein the interface element is in contact with one of the interconnection elements of the two adjacent battery cells (10, 10'), such that the heat spreader plate is in thermal contact with the terminals forming the interconnection element; wherein the bent part protruding from the body of the heat spreader plate is bent to have an area in direct contact with the interconnection element; wherein the heat spreader plate and the interface element are made from one metal sheet; wherein the battery cell arrangement comprises an electrically isolating and thermally conducting element between the heat spreader plate and at least one of the adjacent battery cells (10, 10'). a plurality of battery cells (10, 10'), each battery cell having two terminals; a plurality of interconnection elements, each interconnection element electrically interconnecting a terminal of a battery cell (10, 10') with a terminal of a further battery cell (10, 10'), wherein the interconnection elements are formed of a terminal of the battery cell and a terminal of an adjacent battery cell, which are bent towards each other; a plurality of heat spreader plates, each heat spreader plate arranged between two adjacent battery cells (10, 10'); wherein at least one heat spreader plate between two adjacent battery cells (10, 10') has an interface element protruding from a body of the heat spreader plate; wherein the interface element is formed of a bent part of the heat spreader plate; wherein the interface element is in contact with one of the interconnection elements of the two adjacent battery cells (10, 10'), such that the heat spreader plate is in thermal contact with the terminals forming the interconnection element; wherein the bent part protruding from the body of the heat spreader plate is bent to have an area in direct contact with the interconnection element; wherein the heat spreader plate and the interface element are made from one metal sheet; wherein the battery cell arrangement comprises an electrically isolating and thermally conducting element between the heat spreader plate and at least one of the adjacent battery cells (10, 10').
A fluorescent fusion polypeptide capable of changing its localization within the cell from the cell cytoplasmic membrane to the retention vesicles, upon an increase in the concentration of second messengers within the cell cytoplasm, comprising a membrane localization peptide, a second messenger transduction protein binding peptide, a reticulum retention signal and a fluorescent peptide wherein: a. the membrane localization peptide is located at the N-terminus of the fluorescent fusion polypeptide and is physically bound, optionally through a linker, to the fluorescent peptide, which in turn is physically bound, optionally through a linker, to the second messenger transduction protein binding peptide; and b. the second messenger transduction protein binding peptide is physically bound, optionally through a linker, to the reticulum retention signal, which in turn is located at the C-terminus of the fluorescent fusion polypeptide; and wherein the term "membrane localization peptide" is intended to mean a peptide whose natural intracellular localization is in the plasma membrane. a. the membrane localization peptide is located at the N-terminus of the fluorescent fusion polypeptide and is physically bound, optionally through a linker, to the fluorescent peptide, which in turn is physically bound, optionally through a linker, to the second messenger transduction protein binding peptide; and b. the second messenger transduction protein binding peptide is physically bound, optionally through a linker, to the reticulum retention signal, which in turn is located at the C-terminus of the fluorescent fusion polypeptide;
A device adapted to drive a first part of a wind energy turbine with respect to a second part of the wind energy turbine said device, comprising: a driving element for driving engagement with the first part; a driving unit comprising a housing to be fixedly connected to the second part, a motive generation means for generating motion of the motive element, and a motion transferring means for transferring the motion of said motive element to said driving element; at least one slip coupling arranged between at least one of said motive element of said driving unit and said motion transferring means, said motion transferring means and said driving element, and within said motion transferring means; said slip coupling is adjusted to slip if a torque acting on said slip coupling due to a movement force acting on said driving element exceeds a predetermined maximum torque so as to prevent elements of said driving unit arranged between the housing and said slip coupling from being subjected to unallowed loads, characterised in that said slip coupling further comprises sensor means for sensing relative movement of two elements of said driving unit between which said slip coupling is arranged; and further comprises a means operating said slip coupling by applying a first torque to said slip coupling up to which said slip coupling is not allowed to slip, and thereafter, applying a second torque to said slip coupling from which said slip coupling does slip as indicated by the relative movement of the two elements of said driving unit as sensed by the sensor means. a driving element for driving engagement with the first part; a driving unit comprising a housing to be fixedly connected to the second part, a motive generation means for generating motion of the motive element, and a motion transferring means for transferring the motion of said motive element to said driving element; at least one slip coupling arranged between at least one of said motive element of said driving unit and said motion transferring means, said motion transferring means and said driving element, and within said motion transferring means; said slip coupling is adjusted to slip if a torque acting on said slip coupling due to a movement force acting on said driving element exceeds a predetermined maximum torque so as to prevent elements of said driving unit arranged between the housing and said slip coupling from being subjected to unallowed loads, characterised in that said slip coupling further comprises sensor means for sensing relative movement of two elements of said driving unit between which said slip coupling is arranged; and further comprises a means operating said slip coupling by applying a first torque to said slip coupling up to which said slip coupling is not allowed to slip, and thereafter, applying a second torque to said slip coupling from which said slip coupling does slip as indicated by the relative movement of the two elements of said driving unit as sensed by the sensor means.
A coating composition in the form of a dry, free-flowing powder and comprising effective amounts of: (i) 25% to 66% of a water-soluble cellulose ether; (ii) 0.5% to 60% of a poly(N-vinyl-2-pyrrolidone-co-vinyl acetate) (PVP/VA) copolymer; (iii) 0.1% to 45% of a film-forming agent based on D-glucose, selected from maltodextrin and polydextrose; (iv) and 6% to 22% of a plasticiser; wherein said PVP/VA copolymer contains from 55% N -vinyl-2-pyrrolidone: 45% vinyl acetate to 99% N -vinyl-2-pyrrolidone: 1% vinyl acetate. (i) 25% to 66% of a water-soluble cellulose ether; (ii) 0.5% to 60% of a poly(N-vinyl-2-pyrrolidone-co-vinyl acetate) (PVP/VA) copolymer; (iii) 0.1% to 45% of a film-forming agent based on D-glucose, selected from maltodextrin and polydextrose; (iv) and 6% to 22% of a plasticiser;
A memory circuit comprising: a magnetoresistive random access memory MRAM reference bit cell comprising a first current clamp (344, 354) and a first load circuit (342, 352), the reference bit cell being configured to: receive a control input (Vclamp2) at a control terminal of the first current clamp (344, 354); and output, in response to the control input, a controlled value reference signal (Vref); a magnetoresistive random access memory MRAM data bit cell (360, 370) comprising a second load circuit (362, 372); an MRAM load generator cell for generating a load control signal, the load control signal being supplied to the first load circuit (342, 352) and the second load circuit (362, 372); and a sense amplifier comprising: a first input coupled to the magnetoresistive random access memory MRAM data bit cell (360, 370); and a second input adapted to receive an input signal comprising the controlled value reference signal (Vref). a magnetoresistive random access memory MRAM reference bit cell comprising a first current clamp (344, 354) and a first load circuit (342, 352), the reference bit cell being configured to: receive a control input (Vclamp2) at a control terminal of the first current clamp (344, 354); and output, in response to the control input, a controlled value reference signal (Vref); receive a control input (Vclamp2) at a control terminal of the first current clamp (344, 354); and output, in response to the control input, a controlled value reference signal (Vref); a magnetoresistive random access memory MRAM data bit cell (360, 370) comprising a second load circuit (362, 372); an MRAM load generator cell for generating a load control signal, the load control signal being supplied to the first load circuit (342, 352) and the second load circuit (362, 372); and a sense amplifier comprising: a first input coupled to the magnetoresistive random access memory MRAM data bit cell (360, 370); and a second input adapted to receive an input signal comprising the controlled value reference signal (Vref). a first input coupled to the magnetoresistive random access memory MRAM data bit cell (360, 370); and a second input adapted to receive an input signal comprising the controlled value reference signal (Vref).