mhurhangee/ep-ind-claims huggingface dataset:
A mobile telecommunication handset (200, 400) having an open configuration and a closed configuration, comprising: a display unit (212, 412) configured to display information; a touch pad (214, 414) configured to generate an input when being touched to activate handset functions and provided on the handset (200, 400) below the display unit (212, 412) in a lengthwise direction of the display unit (212, 412); and a control unit configured to control the display unit (212, 412) and the touch pad (214, 414), to perform a function corresponding to the input from the touch pad (214, 414), and to activate and deactivate the touch pad (214, 414) according to the open/closed configuration of the handset, characterized in that: an external key is provided on a side of the handset (200, 400); and the control unit is configured to change the activation/deactivation of the touch pad (214, 414) caused by the configuration of the handset, based on an input from the external key, and to deactivate the touch pad (214, 414) when the control unit does not detect any input on the touch pad (214, 414) for a predetermined amount of time. a display unit (212, 412) configured to display information; a touch pad (214, 414) configured to generate an input when being touched to activate handset functions and provided on the handset (200, 400) below the display unit (212, 412) in a lengthwise direction of the display unit (212, 412); and a control unit configured to control the display unit (212, 412) and the touch pad (214, 414), to perform a function corresponding to the input from the touch pad (214, 414), and to activate and deactivate the touch pad (214, 414) according to the open/closed configuration of the handset, an external key is provided on a side of the handset (200, 400); and
Radiant heater, wherein at least one semiconductor component which emits at least radiation in the wavelength range > 0.7 μm is partly surrounded by a heat sink, wherein at least one surface of the semiconductor component for emitting radiation in the wavelength range > 0.7 μm is not covered by the heat sink, and wherein the heat sink has at least one surface in the direction of the radiation emission of the semiconductor components in the wavelength range > 0.7 μm, and the heat sink, at least in the opposite direction to the radiation emission of the semiconductor components in the wavelength range > 0.7 μm, is arranged at least partly in at least positively locking contact with a thermal insulation, characterized in that furthermore at least one ballast for converting the electrical energy for the operating mode of the semiconductor components is present which is positioned with at least one surface on the surface of or partly in the heat sink and at least one surface of the ballast faces in the direction of the radiation emission of the semiconductor components in the wavelength range > 0.7 μm, and further device elements can be present.
Unmanned aircraft having: a flight control system; a first receiving unit for receiving first signals; and a second receiving unit for receiving second signals; wherein the flight control system is designed to convert the first signals and the second signals into control commands for controlling the aircraft; wherein the flight control system is designed to be changed from a first state to a second state; wherein the first signals are used to control the aircraft in the first state and the second signals are used to control the aircraft in the second state; wherein the flight control system is designed to change from the first state to the second state if a corresponding command is received via the second signals; characterized in that the flight control system is designed to be changed from the second state to the first state if a corresponding command for release from the second state is received via the second signals. a flight control system; a first receiving unit for receiving first signals; and a second receiving unit for receiving second signals; wherein the flight control system is designed to convert the first signals and the second signals into control commands for controlling the aircraft; wherein the flight control system is designed to be changed from a first state to a second state; wherein the first signals are used to control the aircraft in the first state and the second signals are used to control the aircraft in the second state; wherein the flight control system is designed to change from the first state to the second state if a corresponding command is received via the second signals; characterized in that the flight control system is designed to be changed from the second state to the first state if a corresponding command for release from the second state is received via the second signals.
Electric line protection device, said device comprising, in a housing that it comprises, on the one hand, a plurality of coils (1, 2, 3) and a movable actuation element that is configured to be moved, under the effect of a magnetic field, from a rest position to an actuation position, namely a first coil forming an actuator that is able and intended to generate said magnetic field in response to a differential fault occurring in said line, a second coil that is able and intended to generate said magnetic field in response to a short-circuit fault occurring in said line and a third coil and, on the other hand, a trip lock that is able and intended, when actuated under the effect of the movement of said movable actuation element, to transition from a first state to a second state, a control unit that is able and intended, following the detection of a differential fault, to control the first coil so as to generate said magnetic field and a detection circuit for detecting said differential fault that is functionally connected to the control unit, the third coil being able and intended to have an electric current flow through it that is proportional to the electric current flowing through said second coil and characterized in that it comprises an electronic processing unit that is functionally connected to said third coil and configured to process the signals that are representative of the value of the strength of said proportional electric current so as to determine, by comparing said value with at least one predetermined threshold value, whether at least one trip threshold has been exceeded and, if so, to control, via the control unit, the first coil generating said magnetic field. the third coil being able and intended to have an electric current flow through it that is proportional to the electric current flowing through said second coil and characterized in that it comprises an electronic processing unit that is functionally connected to said third coil and configured to process the signals that are representative of the value of the strength of said proportional electric current so as to determine, by comparing said value with at least one predetermined threshold value, whether at least one trip threshold has been exceeded and, if so, to control, via the control unit, the first coil generating said magnetic field.
A method of bonding at a faying surface two substrates of γ-titanium aluminide alloy which has a composition within the range of Ti- Al-(0.1-10)X in at.%, where X represents elements selected from Zr, V, Nb, Ta, Cr, Mo, W, Mn, Si, B, C or combinations thereof and which exhibits a β-single phase region at elevated temperatures, comprising the steps of applying a braze material of a titanium alloy of the general composition Ti- Al- X- Z in at.%, where X represents one or more elements selected from the group of Zr, V, Nb, Ta, Cr, Mo, W, Mn, Si, B, C, and Z represents one or more elements selected from the group of Fe and Ni, and wherein those alloying elements present in the substrate material other than titanium and aluminum are present in quantities in at.% up to their content in the substrate material, the remainder being titanium, at the faying surface of the substrates, and subjecting the substrates and braze material to an elevated temperature in the β-single phase region, and joining the substrates by transient liquid phase bonding.
An adhesive composition applicable to skin comprising: (i) a polar oil or fat comprising (a) at least one triglyceride, and, optionally, (b) at least one fatty acid of the formula R-CO 2 H wherein R is a C 3 to C 30 alkyl group; and (ii) a base polymer comprising at least one homopolymer and/or copolymer, wherein the homopolymer is a homopolymer rubber and the copolymer contains at least two monomers with different glass transition temperatures so that they are immiscible in each other and phase separate at room temperature; and wherein the triglyceride is derived from coconut oil, and wherein the adhesive composition is body heat activated. (i) a polar oil or fat comprising (a) at least one triglyceride, and, optionally, (b) at least one fatty acid of the formula R-CO 2 H wherein R is a C 3 to C 30 alkyl group; and (a) at least one triglyceride, and, optionally, (b) at least one fatty acid of the formula R-CO 2 H wherein R is a C 3 to C 30 alkyl group; and (ii) a base polymer comprising at least one homopolymer and/or copolymer, wherein the homopolymer is a homopolymer rubber and the copolymer contains at least two monomers with different glass transition temperatures so that they are immiscible in each other and phase separate at room temperature; and
A node B (201, 202, 203, 300, 301, 302, 303) in a communication network, wherein the node B (201, 202, 203, 300, 301, 302, 303) is configured to: transmit, to a user equipment, UE, information for inter-frequency measurement including frequencies, an indication indicating that the frequencies are configured for relaxed measurement, and a scaling factor for scaling a time period for the inter-frequency measurement; and receive, from the UE, a measurement report including a measurement result which is based on the information, wherein the time period is scaled based on the scaling factor, and the time period for the relaxed measurement is different from a time period for normal measurement. transmit, to a user equipment, UE, information for inter-frequency measurement including frequencies, an indication indicating that the frequencies are configured for relaxed measurement, and a scaling factor for scaling a time period for the inter-frequency measurement; and receive, from the UE, a measurement report including a measurement result which is based on the information, wherein the time period is scaled based on the scaling factor, and the time period for the relaxed measurement is different from a time period for normal measurement.
A lighting arrangement, comprising at least two light sources arranged in a pattern along a longitudinal axis and adapted to emit light in a first wavelength range and a wavelength converting layer arranged at a distance from the at least two light sources, the wavelength converting layer being arranged to receive light emitted from the at least two light sources and adapted to convert light in the first wavelength range to light in a second wavelength range, characterized by a spectrally selective layer arranged between the at least two light sources and the wavelength converting layer, which spectrally selective layer is adapted to reflect light in the first wavelength range having an angle of incidence smaller than a predefined angle and to transmit light in the first wavelength range having an angle of incidence larger than the predefined angle, wherein the cross section of the spectrally selective layer in a plane perpendicular to the longitudinal axis has substantially the shape of an arc of a circle.
A laundry treating machine comprising an accommodating space to receive laundry therein; a circulation duct in communication with the accommodating space; a heat pump provided along the circulation duct to remove moisture from the air and supply dried air to the accommodating space; and a heat exchanging unit provided along the circulation duct to remove additional moisture from the dried air supplied to the accommodating space independent from the heat pump, and a fan configured to circulate air along the circulation duct, characterized in that a controller controls the laundry treatment machine according to a selected mode wherein if a first mode is selected, the heat pump is driven and the fan is operated, wherein if a second mode is selected, the heat exchanging unit is driven and the heat pump is turned off and the fan is driven at below a half rotational speed of the first mode.
A method comprising: obtaining empirically based data that that takes account of the gravitational potential produced by the Earth's distributed mass; determining initial conditions ( ṙ int ( t int),r int ( t int)) for a satellite from ephemeris data; mapping (23, Equation 2) said initial conditions from one variable space ([r,t]) to another variable space ([U, s]) defined by a first mapped variable (s) and a second mapped variable to produce mapped initial conditions; solving a differential equation of motion of the satellite (Equation 14) to produce (34, 35, 36) an algebraic solution (Equation 25) for the mapped initial conditions, wherein the differential equation is expressed (Equation 14) using geometric algebra in terms of the first mapped variable (s) and the second mapped variable and the differential equation comprises a constant (J n, Γ n) based on the empirically based data; using the produced algebraic solution (Equation 25) of the differential equation (Equation 14) to enable positioning of a mobile receiver based on positioning signals received at the mobile receiver from the satellite and a satellite position value (r t1) determined (37, 38, 40, 41, 42) from the produced algebraic solution (Equation 25) of the differential equation. obtaining empirically based data that that takes account of the gravitational potential produced by the Earth's distributed mass; determining initial conditions ( ṙ int ( t int),r int ( t int)) for a satellite from ephemeris data; mapping (23, Equation 2) said initial conditions from one variable space ([r,t]) to another variable space ([U, s]) defined by a first mapped variable (s) and a second mapped variable to produce mapped initial conditions; solving a differential equation of motion of the satellite (Equation 14) to produce (34, 35, 36) an algebraic solution (Equation 25) for the mapped initial conditions, wherein the differential equation is expressed (Equation 14) using geometric algebra in terms of the first mapped variable (s) and the second mapped variable and the differential equation comprises a constant (J n, Γ n) based on the empirically based data; using the produced algebraic solution (Equation 25) of the differential equation (Equation 14) to enable positioning of a mobile receiver based on positioning signals received at the mobile receiver from the satellite and a satellite position value (r t1) determined (37, 38, 40, 41, 42) from the produced algebraic solution (Equation 25) of the differential equation.
Cylinder head (10; 50; 90; 130) for an air compressor having at least one intake duct (12; 52; 92; 132) for the intake of uncompressed air from the surroundings and at least one pressure duct for the discharge of the compressed air, and having a cooling water duct (14, 16; 54, 56; 94, 96; 136), it being possible for the at least one intake duct (12; 52; 92; 132) to be closed in a pressure-tight manner with respect to a compression space (22; 62; 102; 142) by means of at least one intake vane (20; 60; 100; 140) which is arranged on an underside (18; 58; 98; 138) of the cylinder head, characterized in that the at least one intake duct (12; 52; 92; 132) is surrounded in sections by a substantially concentric annular groove (26; 66; 106; 146) which is close to the intake vane, the annular groove (26; 66; 106; 146) being filled at least partially with a thermally insulating medium, the thermally insulating medium being air or a porous plastic.
An aerosol generator comprising:- a vibratable member having apertures therein; a vibration generating element, whereby excitation of the vibration generating element causes movement of the vibratable member; a support member, the vibration generating element and the vibratable member being mounted to the support member; a first electrical power conducting pin which engages with a first surface of the vibration generating element; a second electrical power conducting pin for conducting electrical power to a second surface of the vibration generating element; wherein the vibration generating element and the support member are annular, wherein the second surface of the vibration generating element is mounted to the support member, and the second conducting pin engages with the support member, wherein the conducting pins (10, 11) are substantially parallel to each other, extending on the same side of the vibration generating element and the support characterised in that, each of the conducting pins (10, 11) comprises a barrel and a plunger which is biased by a spring housed in the barrel, and exerts a spring contact surface in the range of 1.3N to 3N; and in that an interfacial contact surface of at least one pin has a coating thereon to prevent oxidation of the interfacial surfaces. a vibratable member having apertures therein; a vibration generating element, whereby excitation of the vibration generating element causes movement of the vibratable member; a support member, the vibration generating element and the vibratable member being mounted to the support member; a first electrical power conducting pin which engages with a first surface of the vibration generating element; a second electrical power conducting pin for conducting electrical power to a second surface of the vibration generating element; wherein the vibration generating element and the support member are annular, wherein the second surface of the vibration generating element is mounted to the support member, and the second conducting pin engages with the support member, wherein the conducting pins (10, 11) are substantially parallel to each other, extending on the same side of the vibration generating element and the support characterised in that, each of the conducting pins (10, 11) comprises a barrel and a plunger which is biased by a spring housed in the barrel, and exerts a spring contact surface in the range of 1.3N to 3N; and in that an interfacial contact surface of at least one pin has a coating thereon to prevent oxidation of the interfacial surfaces.
A system for generating high peak power laser pulses comprising: - a light source for emitting initial nanosecond laser pulses (I L); - a fiber-based device for conveying laser pulses, comprising at least one first multimode fiber with a single core; - a diffractive optical element and an optical system both arranged upstream of the fiber-based device, and configured to generate, from each of said initial laser pulses, a laser pulse (I F) at the input of the fiber-based device, wherein the spatial intensity distribution of each of said laser pulses (I F) on an input face of said first multimode fiber comprises a low spatial frequency "top hat" type component summed with a high spatial frequency component resulting from speckle type interference; - a spatial shaping module, arranged upstream of the fiber-based device, configured to transform a first electric field into a second electric field formed by a sum of N components that are at least partially spatially incoherent with one another, N ≥ 2, such that the contrast of the high spatial frequency component resulting from speckle type interference is limited compared to an initial contrast defined without said spatial shaping module. - a light source for emitting initial nanosecond laser pulses (I L); - a fiber-based device for conveying laser pulses, comprising at least one first multimode fiber with a single core; - a diffractive optical element and an optical system both arranged upstream of the fiber-based device, and configured to generate, from each of said initial laser pulses, a laser pulse (I F) at the input of the fiber-based device, wherein the spatial intensity distribution of each of said laser pulses (I F) on an input face of said first multimode fiber comprises a low spatial frequency "top hat" type component summed with a high spatial frequency component resulting from speckle type interference; - a spatial shaping module, arranged upstream of the fiber-based device, configured to transform a first electric field into a second electric field formed by a sum of N components that are at least partially spatially incoherent with one another, N ≥ 2, such that the contrast of the high spatial frequency component resulting from speckle type interference is limited compared to an initial contrast defined without said spatial shaping module.
A fastener stringer in which a plurality of metallic fastener elements is attached to a tape side edge portion of a fastener tape and printing by an inkjet method is carried out at least on a first tape surface side of the fastener tape, being characterized in that: at least one printable resin layer (23, 43) which is capable of fixing ink is arranged on an entire surface of the fastener element, the printing pattern by the inkjet method is applied on an exposed surface which is exposed to the first tape surface side in a tape front and back direction of the fastener element and a side surface of the fastener element facing a tape inward side on the first tape surface side together with the first tape surface, and the printable resin layer (23, 43) is made of an acrylic resin or an acryl-urethane resin and has a film thickness in the range of 0.1 to 5 μm. at least one printable resin layer (23, 43) which is capable of fixing ink is arranged on an entire surface of the fastener element, the printing pattern by the inkjet method is applied on an exposed surface which is exposed to the first tape surface side in a tape front and back direction of the fastener element and a side surface of the fastener element facing a tape inward side on the first tape surface side together with the first tape surface, and the printable resin layer (23, 43) is made of an acrylic resin or an acryl-urethane resin and has a film thickness in the range of 0.1 to 5 μm.