mhurhangee/ep-ind-claims huggingface dataset:
RF testing equipment for testing a D2D-enabled mobile communications terminal, having an emulation device for emulating the D2D function of a plurality of mobile communications terminals (12, 13), which is designed to emulate a number of mutually independent transmission channels (30, 31) corresponding to the number of mobile communications terminals (12, 13) in that, for each transmission channel (30, 31), a baseband data signal (26, 26a, 26b) specific to the respective transmission channel (30, 31) is generated with the aid of a predefined channel model, a linking device designed to link together the generated baseband data signals (26, 26a, 26b), a conversion device designed to generate a reception signal for a mobile communications terminal to be tested in that the linked baseband data signal is converted from the frequency domain into the time domain, a communications interface, by means of which the RF testing equipment can be coupled to the mobile communications terminal to be tested and by means of which the reception signal can be emitted to the mobile communications terminal to be tested.
An apparatus comprising: circuitry (220, 222, 224, 226, 230, 232) configured to derive at least two output streams, wherein each output stream comprises a sum of at least two intermediate signals, the circuitry being configured to derive each intermediate signal by applying a coefficient (c1A, c2A, c1B, c2B) to a signal received from an antenna element (206, 208), each output stream corresponding to an antenna beam (200A, 200B), the apparatus being a mobile communications apparatus, wherein the apparatus further comprises at least one processing core configured to determine an operating condition relating to the apparatus, select, based at least in part on the operating condition, from a preconfigured plurality of coefficient sets, a first set of coefficients (c1A, c2A, c1B, c2B) designated as optimal for the operating condition, and to provide the selected first set of coefficients (c1A, c2A, c1B, c2B) to the circuitry for use in deriving the intermediate signals to thereby reduce correlation between the output streams, wherein the operating condition comprises at least one of: a frequency being used and a frequency band being used, the operating condition not comprising a direction of arrival of an incoming signal. circuitry (220, 222, 224, 226, 230, 232) configured to derive at least two output streams, wherein each output stream comprises a sum of at least two intermediate signals, the circuitry being configured to derive each intermediate signal by applying a coefficient (c1A, c2A, c1B, c2B) to a signal received from an antenna element (206, 208), each output stream corresponding to an antenna beam (200A, 200B), the apparatus being a mobile communications apparatus, wherein the apparatus further comprises at least one processing core configured to determine an operating condition relating to the apparatus, select, based at least in part on the operating condition, from a preconfigured plurality of coefficient sets, a first set of coefficients (c1A, c2A, c1B, c2B) designated as optimal for the operating condition, and to provide the selected first set of coefficients (c1A, c2A, c1B, c2B) to the circuitry for use in deriving the intermediate signals to thereby reduce correlation between the output streams, wherein the operating condition comprises at least one of: a frequency being used and a frequency band being used, the operating condition not comprising a direction of arrival of an incoming signal.
A method of generating a custom color mapping, comprising: accessing a plurality of color mappings, each color mapping providing a mapping from a color value in a color space to a Neugebauer Primary area coverage (NPac) vector; for a given color value in the color space: determining first and second NPac vectors that result from mapping the given color value using first and second color mappings respectively of the plurality of color mappings; obtaining one or more imaging metrics for the first NPac vector and one or more imaging metrics for the second NPac vector; comparing the obtained one or more imaging metrics for the first NPac vector to the obtained one or more imaging metrics for the second NPac vector; and selecting one of the first and second NPac vectors based on the comparison, wherein the selected one of the first and second NPac vectors is used as an output NPac vector for the given color value. accessing a plurality of color mappings, each color mapping providing a mapping from a color value in a color space to a Neugebauer Primary area coverage (NPac) vector; for a given color value in the color space: determining first and second NPac vectors that result from mapping the given color value using first and second color mappings respectively of the plurality of color mappings; obtaining one or more imaging metrics for the first NPac vector and one or more imaging metrics for the second NPac vector; comparing the obtained one or more imaging metrics for the first NPac vector to the obtained one or more imaging metrics for the second NPac vector; and selecting one of the first and second NPac vectors based on the comparison, determining first and second NPac vectors that result from mapping the given color value using first and second color mappings respectively of the plurality of color mappings; obtaining one or more imaging metrics for the first NPac vector and one or more imaging metrics for the second NPac vector; comparing the obtained one or more imaging metrics for the first NPac vector to the obtained one or more imaging metrics for the second NPac vector; and selecting one of the first and second NPac vectors based on the comparison, wherein the selected one of the first and second NPac vectors is used as an output NPac vector for the given color value.
Refrigerant compressor, in particular, displacement compressor, comprising a compressor housing with an outlet chamber enclosed by it and an outlet passage leading from the outlet chamber to an external high pressure connection, characterized in that a pulsation damping element is inserted into the outlet passage of the compressor housing following the outlet chamber, that the pulsation damping element has an inlet baffle facing the outlet chamber and extending over a cross section of the outlet passage and located opposite thereto an outlet baffle extending over the cross section of the outlet passage, that at least one reflection chamber (50, 60) is provided between the inlet baffle and the outlet baffle and that the inlet baffle and the outlet baffle each have at least one passage (46, 66) facing a reflection surface (58, 62) on the respectively other baffle (44, 42).
A connector, comprising: a connector housing to be mounted on an electrically conductive bracket, a plurality of terminal fittings to be connected with cables including ground wires and to be at least partly mounted into terminal fitting accommodating chambers of the connector housing, and a plurality of split ground terminals each including at least one circuit-side contact portion to be connected with the terminal fitting connected with the ground wire and at least one bracket-side contact portion to be connected with the bracket, the plurality of split ground terminals being at least partly mounted into the connector housing, said circuit-side contact portion being connectable with the terminal fitting via a circuit-side contact piece communication space (45A, 45B) formed in the connector housing, such that said circuit-side contact portion is at least partly located in said terminal fitting accommodating chamber. a connector housing to be mounted on an electrically conductive bracket, a plurality of terminal fittings to be connected with cables including ground wires and to be at least partly mounted into terminal fitting accommodating chambers of the connector housing, and a plurality of split ground terminals each including at least one circuit-side contact portion to be connected with the terminal fitting connected with the ground wire and at least one bracket-side contact portion to be connected with the bracket, the plurality of split ground terminals being at least partly mounted into the connector housing, said circuit-side contact portion being connectable with the terminal fitting via a circuit-side contact piece communication space (45A, 45B) formed in the connector housing, such that said circuit-side contact portion is at least partly located in said terminal fitting accommodating chamber.
A solid oxide fuel cell device assembly comprising: at least one solid oxide fuel cell device including one electrolyte sheet sandwiched between at least one pair of electrodes; including at least one anode and at least one cathode; and characterized by at least two solid oxide fuel cell devices separated by a non-steel frame, the non-steel frame is fixedly attached to said at least two solid oxide fuel cell devices without a seal located therebetween, is made from glass, glass-ceramic or ceramic based material, and is sintered to said solid oxide fuel cell devices, and wherein said frame is a hermetic seal; and wherein the solid oxide fuel cell device assembly includes at least one reactant chamber that is partially formed by the at least two solid oxide fuel cell devices and the frame. at least one solid oxide fuel cell device including one electrolyte sheet sandwiched between at least one pair of electrodes; including at least one anode and at least one cathode; and characterized by at least two solid oxide fuel cell devices separated by a non-steel frame, the non-steel frame is fixedly attached to said at least two solid oxide fuel cell devices without a seal located therebetween, is made from glass, glass-ceramic or ceramic based material, and is sintered to said solid oxide fuel cell devices, and wherein said frame is a hermetic seal; and wherein the solid oxide fuel cell device assembly includes at least one reactant chamber that is partially formed by the at least two solid oxide fuel cell devices and the frame.
Reinforcement system for steel-concrete composite slabs with profiled sheet, comprising a longitudinally profiled sheet with an upper longitudinal flange and a lower longitudinal flange, wherein the upper longitudinal flange has a longitudinal stiffener in the form of an upward fold with mutually spaced cuts, wherein each cut is vertical to receive a bar transverse to the profiled sheet; characterized in that said cuts terminate in a bore-shaped cutout at the base of said cuts for fitting said transversal bars; wherein said cuts have a width less than the diameter of said transversal bars and the bore-shaped cutout at the base of said cuts has a width equal to or greater than the diameter of said transversal bars, for fitting and retaining said transversal bars. characterized in that said cuts terminate in a bore-shaped cutout at the base of said cuts for fitting said transversal bars; wherein said cuts have a width less than the diameter of said transversal bars and the bore-shaped cutout at the base of said cuts has a width equal to or greater than the diameter of said transversal bars, for fitting and retaining said transversal bars.
Connector for making direct electric contact with contact surfaces on a circuit board, the connector having a contact carrier, which is designed to hold a circuit board; contact elements, which are arranged in the contact carrier; a pressing spring device, which is designed to press the contact elements onto the contact surfaces of the circuit board; characterized in that the pressing spring device is arranged on the contact carrier; wherein the pressing spring device is designed to be displaced from a fitting position into a latching position; wherein the pressing spring device is designed to change its position in relation to the contact carrier and to maintain its shape during the displacement.
A washing control method of a washing machine to perform washing using bubbles generated by a bubble generation unit, characterised by the steps of: i) detecting an amount of load depending upon the weight of laundry; ii) controlling (600,604) an amount of wetting water according to the detected amount of load to wet the laundry before bubble generation; and iii) generating (600,616-624) bubbles to wash the laundry. i) detecting an amount of load depending upon the weight of laundry; ii) controlling (600,604) an amount of wetting water according to the detected amount of load to wet the laundry before bubble generation; and iii) generating (600,616-624) bubbles to wash the laundry.
A blade for a rotor of a gas turbine comprising: - a root for connecting the blade to a disc of the rotor, - a platform having a lower surface from which the root extends and an upper surface opposite to the lower surface, - a hollow aerofoil extending from the upper surface of the platform, - the aerofoil comprising a leading edge and a trailing edge and the platform comprising a leading border upstream the leading edge and a trailing border downstream the trailing edge, the lower surface of the platform comprising an upstream seat and a downstream seat, - an inner cooling passage inside the hollow aerofoil for channelling a first cooling medium to a first plurality of outlet cooling holes provided on at least an external surface of the hollow aerofoil, characterized in that - at least a channel (62, 82), separated from the inner cooling passage, extends through the platform for channelling a second cooling medium from at least one opening (65, 66) of the channel to a second plurality of outlet cooling holes provided on the upper surface of the platform, wherein the at least one opening (65, 66) of the channel is provided on the lower surface of the platform between the leading border and the upstream seat and/or between the downstream seat and the trailing border. - a root for connecting the blade to a disc of the rotor, - a platform having a lower surface from which the root extends and an upper surface opposite to the lower surface, - a hollow aerofoil extending from the upper surface of the platform, - the aerofoil comprising a leading edge and a trailing edge and the platform comprising a leading border upstream the leading edge and a trailing border downstream the trailing edge, the lower surface of the platform comprising an upstream seat and a downstream seat, - an inner cooling passage inside the hollow aerofoil for channelling a first cooling medium to a first plurality of outlet cooling holes provided on at least an external surface of the hollow aerofoil, characterized in that - at least a channel (62, 82), separated from the inner cooling passage, extends through the platform for channelling a second cooling medium from at least one opening (65, 66) of the channel to a second plurality of outlet cooling holes provided on the upper surface of the platform, wherein the at least one opening (65, 66) of the channel is provided on the lower surface of the platform between the leading border and the upstream seat and/or between the downstream seat and the trailing border.
Method for controlling a temperature distribution in a heat exchanger, with which an actual temperature distribution in the heat exchanger is measured by means of at least one optical waveguide, especially in the form of a glass fiber, arranged in the heat exchanger, wherein light is coupled into the at least one optical waveguide and light dispersed in the optical waveguide is analyzed to determine the actual temperature distribution, and wherein the heat exchanger has a tube bundle having a plurality of tubes arranged in a shell space of the heat exchanger, and wherein the actual temperature distribution is measured by means of the at least one optical waveguide, which is arranged in the interior of a tube of the tube bundle and/or on an exterior of a tube of the tube bundle in the shell space, and wherein the heat exchanger is configured as a coil-wound heat exchanger, characterized in that at least one stream (S, S') of a fluid medium (F, F') conducted in the heat exchanger is controlled such that the actual temperature distribution is approximated to a target temperature distribution, and wherein - the tubes form a plurality of sections (R1, R2, R3) of the tube bundle which can be separately filled with said medium, wherein the individual sections (R1, R2, R3) are each filled with said medium (F') in such a way that the actual temperature distribution is approximated to the target temperature distribution, or - a stream (S, S') of a fluid medium is distributed in the shell space into the tube bundle in such a way that the actual temperature distribution is approximated to the target temperature distribution, wherein the fluid medium is variably distributed into the tube bundle in the radial direction of the tube bundle and/or in a circumferential direction of the tube bundle so that the actual temperature distribution is approximated to the target temperature distribution. - the tubes form a plurality of sections (R1, R2, R3) of the tube bundle which can be separately filled with said medium, wherein the individual sections (R1, R2, R3) are each filled with said medium (F') in such a way that the actual temperature distribution is approximated to the target temperature distribution, or - a stream (S, S') of a fluid medium is distributed in the shell space into the tube bundle in such a way that the actual temperature distribution is approximated to the target temperature distribution, wherein the fluid medium is variably distributed into the tube bundle in the radial direction of the tube bundle and/or in a circumferential direction of the tube bundle so that the actual temperature distribution is approximated to the target temperature distribution.
A method for testing software applications in a system under test, SUT, comprising: building a reference model of the SUT, the reference model comprising a computer-based neural network; training the reference model using input data and corresponding output data generated by the SUT; selecting an output value within a domain of possible output values of the SUT, the selected output value representing an output that is not represented in the output data used to train the reference model; applying the selected output value to the reference model and tracing the selected output through the reference model to identify test input values that, when input to the reference model, produce the selected output value; and using the identified test input values to test the system under test. building a reference model of the SUT, the reference model comprising a computer-based neural network; training the reference model using input data and corresponding output data generated by the SUT; selecting an output value within a domain of possible output values of the SUT, the selected output value representing an output that is not represented in the output data used to train the reference model; applying the selected output value to the reference model and tracing the selected output through the reference model to identify test input values that, when input to the reference model, produce the selected output value; and using the identified test input values to test the system under test.
A multi-cladding optical fiber comprising: a core (a) with an average refractive index n1 that guides a signal light; and a cladding (e) comprising an inner cladding (b) with an average refractive index n2 that is formed on the periphery of the core, an intermediate cladding (c) with an average refractive index n3 that is formed on the periphery of the inner cladding (b), and an outer cladding (d) with an average refractive index n4 that is formed on the periphery of the intermediate cladding (c) to confine a pumping light to the intermediate cladding (c) or the inner cladding (b); wherein the refractive indices n1 to n4 satisfy the relationship of nl > n2 > n3 > n4; two or more axisymmetric modes exist in the core (a) at a wavelength of the signal light; the two or more axisymmetric modes include a fundamental mode and a high-order mode that is an axisymmetric mode of a higher order than the fundamental mode; when bent at a predetermined bending diameter, the high-order mode in the core (a) disperses within the inner cladding (b) due to coupling with an inner cladding mode, so that only the fundamental mode of the two or more axisymmetric modes substantially propagates in the core (a) through the fiber, the outer diameter of the inner cladding (b) is two to five times the outer diameter of the core (a), and 130 μm or less, the outer diameter of the core (a) is 25 to 50 μm, and the relative refractive index difference between the core (a) and the inner cladding (b) is 0.05 to 0.13%. a core (a) with an average refractive index n1 that guides a signal light; and a cladding (e) comprising an inner cladding (b) with an average refractive index n2 that is formed on the periphery of the core, an intermediate cladding (c) with an average refractive index n3 that is formed on the periphery of the inner cladding (b), and an outer cladding (d) with an average refractive index n4 that is formed on the periphery of the intermediate cladding (c) to confine a pumping light to the intermediate cladding (c) or the inner cladding (b); wherein the refractive indices n1 to n4 satisfy the relationship of nl > n2 > n3 > n4; two or more axisymmetric modes exist in the core (a) at a wavelength of the signal light; the two or more axisymmetric modes include a fundamental mode and a high-order mode that is an axisymmetric mode of a higher order than the fundamental mode; when bent at a predetermined bending diameter, the high-order mode in the core (a) disperses within the inner cladding (b) due to coupling with an inner cladding mode, so that only the fundamental mode of the two or more axisymmetric modes substantially propagates in the core (a) through the fiber, the outer diameter of the inner cladding (b) is two to five times the outer diameter of the core (a), and 130 μm or less, the outer diameter of the core (a) is 25 to 50 μm, and the relative refractive index difference between the core (a) and the inner cladding (b) is 0.05 to 0.13%.