mhurhangee/ep-ind-claims huggingface dataset:
A testing device for testing a luminescence imaging apparatus, wherein the testing device comprises: a resting surface for resting the testing device on a supporting surface, one or more seats, one or more containers each filled with a liquid comprising at least one luminescence substance, each of the containers being accommodated in a corresponding one of the seats, one or more windows corresponding to the seats being opened in an imaging surface of the testing device opposite the resting surface, each of the windows exposing a part of the corresponding seat for imaging the luminescence substance of a corresponding part of the container accommodated therein being transparent to an excitation light of the luminescence substance and to a luminescence light emitted by the luminescence substance when illuminated by the excitation light, wherein the seats extend along corresponding longitudinal axes from corresponding first ends to corresponding second ends, each of the seats being slanted with respect to the resting surface with the second end closer to the resting surface than the first end and the longitudinal axes of the seats forming an angle of 5-30° with the resting surface, and in that the corresponding windows are spaced apart from the first ends of the seats. a resting surface for resting the testing device on a supporting surface, one or more seats, one or more containers each filled with a liquid comprising at least one luminescence substance, each of the containers being accommodated in a corresponding one of the seats, one or more windows corresponding to the seats being opened in an imaging surface of the testing device opposite the resting surface, each of the windows exposing a part of the corresponding seat for imaging the luminescence substance of a corresponding part of the container accommodated therein being transparent to an excitation light of the luminescence substance and to a luminescence light emitted by the luminescence substance when illuminated by the excitation light, wherein the seats extend along corresponding longitudinal axes from corresponding first ends to corresponding second ends, each of the seats being slanted with respect to the resting surface with the second end closer to the resting surface than the first end and the longitudinal axes of the seats forming an angle of 5-30° with the resting surface, and in that the corresponding windows are spaced apart from the first ends of the seats.
A control system for an electric power distribution grid configured to supply electric power from a supply point to a plurality of user locations (150, 160), the system comprising: a plurality of sensors, wherein each sensor is located at a respective one of a plurality of distribution locations on the distribution grid at or between the supply point and at least one of the plurality of user locations, and wherein each sensor is configured to sense a voltage of the supplied electric power at the respective distribution location and to generate measurement data based on the sensed voltage of the power; a controller configured to generate an energy delivery parameter (C ED) based on a comparison of the measurement data received from the sensors to a controller target band; an adjusting device configured to adjust a voltage of the distribution grid in response to the energy delivery parameter; wherein the controller target band has upper and lower limits, the upper and lower limits defining a range of acceptable values for the voltage of electric power at the distribution locations; and characterised in that the controller is further configured to also use a linear optimization technique and boundary conditions to generate the energy delivery parameter (C ED), the generated energy delivery parameter corresponding to an optimum operating point for the distribution grid to minimize power losses within the electric power distribution grid. a plurality of sensors, wherein each sensor is located at a respective one of a plurality of distribution locations on the distribution grid at or between the supply point and at least one of the plurality of user locations, and wherein each sensor is configured to sense a voltage of the supplied electric power at the respective distribution location and to generate measurement data based on the sensed voltage of the power; a controller configured to generate an energy delivery parameter (C ED) based on a comparison of the measurement data received from the sensors to a controller target band; an adjusting device configured to adjust a voltage of the distribution grid in response to the energy delivery parameter; wherein the controller target band has upper and lower limits, the upper and lower limits defining a range of acceptable values for the voltage of electric power at the distribution locations; and characterised in that the controller is further configured to also use a linear optimization technique and boundary conditions to generate the energy delivery parameter (C ED), the generated energy delivery parameter corresponding to an optimum operating point for the distribution grid to minimize power losses within the electric power distribution grid.
A method of inerting pipelines, or buried tanks or wellbores consisting of: - preparing a composition comprising at least one superabsorbent (co)polymer partially or fully swollen in the presence of water, - then injecting the composition directly into the pipelines or buried tank or well. - preparing a composition comprising at least one superabsorbent (co)polymer partially or fully swollen in the presence of water, - then injecting the composition directly into the pipelines or buried tank or well.
A method for use in a network node for constructing an unsounded channel in a wireless network wherein the network node comprises more antennas than a wireless device and the wireless device comprises more than one receive antenna, the method comprising: receiving channel state information, CSI, feedback and a sounded reference signal from the wireless device; estimating a sounded channel from the sounded reference signal; deriving a partial downlink channel based on the sounded reference signal; constructing an unsounded channel as a function of the CSI feedback and the partial downlink channel; concatenating the sounded channel and unsounded channel into a full channel; and transmitting a wireless signal to the wireless device using the full channel for beamforming or link adaptation, characterized in that: constructing the unsounded channel as a function of the CSI feedback and the partial downlink channel comprises: - ordering columns of a precoding matrix indicator, PMI, or a variant of the PMI, included in the received CSI feedback; - down-selecting a subset of the ordered columns; - projecting the down-selected columns in a nulling space of the partial downlink channel; and - scaling the projection so that constructed unsounded channel is power comparable with the partial downlink channel. receiving channel state information, CSI, feedback and a sounded reference signal from the wireless device; estimating a sounded channel from the sounded reference signal; deriving a partial downlink channel based on the sounded reference signal; constructing an unsounded channel as a function of the CSI feedback and the partial downlink channel; concatenating the sounded channel and unsounded channel into a full channel; and transmitting a wireless signal to the wireless device using the full channel for beamforming or link adaptation, characterized in that: constructing the unsounded channel as a function of the CSI feedback and the partial downlink channel comprises: - ordering columns of a precoding matrix indicator, PMI, or a variant of the PMI, included in the received CSI feedback; - down-selecting a subset of the ordered columns; - projecting the down-selected columns in a nulling space of the partial downlink channel; and - scaling the projection so that constructed unsounded channel is power comparable with the partial downlink channel. - ordering columns of a precoding matrix indicator, PMI, or a variant of the PMI, included in the received CSI feedback; - down-selecting a subset of the ordered columns; - projecting the down-selected columns in a nulling space of the partial downlink channel; and - scaling the projection so that constructed unsounded channel is power comparable with the partial downlink channel.
A nitride semiconductor light emitting device comprising: a first nitride semiconductor layer; an active layer formed above the first nitride semiconductor layer; and a carbon C -doped second nitride semiconductor layer formed above the active layer, wherein the C -doped second nitride semiconductor layer comprises an undoped GaN layer and a C-doped p-GaN layer, the C -doped p-GaN layer being formed by a delta doping in which a dose from a trimethylgallium metal organic TMGa MO source is pulsed or periodically varied, one pair of the undoped GaN layer and the C-doped p-GaN layer forming one period, and the C -doped second nitride semiconductor layer being grown in at least one period. a first nitride semiconductor layer; an active layer formed above the first nitride semiconductor layer; and a carbon C -doped second nitride semiconductor layer formed above the active layer, wherein the C -doped second nitride semiconductor layer comprises an undoped GaN layer and a C-doped p-GaN layer, the C -doped p-GaN layer being formed by a delta doping in which a dose from a trimethylgallium metal organic TMGa MO source is pulsed or periodically varied, one pair of the undoped GaN layer and the C-doped p-GaN layer forming one period, and the C -doped second nitride semiconductor layer being grown in at least one period.
A method of converting raw multidimensional digital data (xk) corresponding to points (k) making up a 2D or 3D image, the method comprising: - a step of sizing a multidimensional window for traversing of the said image; - a step of traversing the said image comprising the movement of the said window in the image along the axes of the image; - at each position of the said window in the image: ∘ a step of acquiring and loading, in the said buffer, raw data (xk) of the part of the said image defined by the window; ∘ a conversion step comprising a step of calculating the multidimensional wavelet transform of the said loaded part by means of at least one compact support filter for generating low-frequency (sk) and high-frequency (dk) coefficients, the high-frequency filter length being L h and the low-frequency filter length being L g; ∘ a step of saving the said coefficients generated, caracterized in that the step of sizing the multidimensional window is a step of sizing function of the size B of a buffer memory according to equation B = ∏ i = 1 n x i + L where L is the maximum of lengths L h and L g minus one, n is an integer equal to 2 for a 2D image and equal to 3 for a 3D image et x i the number of points of the multidimensional window along axis i. - a step of sizing a multidimensional window for traversing of the said image; - a step of traversing the said image comprising the movement of the said window in the image along the axes of the image; - at each position of the said window in the image: ∘ a step of acquiring and loading, in the said buffer, raw data (xk) of the part of the said image defined by the window; ∘ a conversion step comprising a step of calculating the multidimensional wavelet transform of the said loaded part by means of at least one compact support filter for generating low-frequency (sk) and high-frequency (dk) coefficients, the high-frequency filter length being L h and the low-frequency filter length being L g; ∘ a step of saving the said coefficients generated, caracterized in that the step of sizing the multidimensional window is a step of sizing function of the size B of a buffer memory according to equation B = ∏ i = 1 n x i + L where L is the maximum of lengths L h and L g minus one, n is an integer equal to 2 for a 2D image and equal to 3 for a 3D image et x i the number of points of the multidimensional window along axis i. ∘ a step of acquiring and loading, in the said buffer, raw data (xk) of the part of the said image defined by the window; ∘ a conversion step comprising a step of calculating the multidimensional wavelet transform of the said loaded part by means of at least one compact support filter for generating low-frequency (sk) and high-frequency (dk) coefficients, the high-frequency filter length being L h and the low-frequency filter length being L g; ∘ a step of saving the said coefficients generated,
A compound of Formula I, or a pharmaceutically acceptable salt thereof: wherein X is selected from: wherein M+ is a pharmaceutically acceptable monovalent cation and D 2+ is a pharmaceutically acceptable divalent cation; each J B is independently selected from halogen; m is selected from 0 or 1; n is selected from 0, 1, 2, 3 or 4; both R 1 and R 2 are simultaneously C 1-4 fluoroalky, R 3 is selected from halogen, hydrogen, -CN or -NH 2; both instances of R 4 are simultaneously hydrogen or both instances of R 4, together with the carbon atom to which they are attached form a carbonyl group; and R 5 is selected from hydrogen or methyl. wherein M+ is a pharmaceutically acceptable monovalent cation and D 2+ is a pharmaceutically acceptable divalent cation; each J B is independently selected from halogen; m is selected from 0 or 1; n is selected from 0, 1, 2, 3 or 4; both R 1 and R 2 are simultaneously C 1-4 fluoroalky, R 3 is selected from halogen, hydrogen, -CN or -NH 2; both instances of R 4 are simultaneously hydrogen or both instances of R 4, together with the carbon atom to which they are attached form a carbonyl group; and R 5 is selected from hydrogen or methyl.
A system for detecting the start and completion of loading and unloading of a vehicle, comprising: an acceleration detector provided on the vehicle; a location detector for detecting the vehicle's location; a processor which receives information detected by the acceleration detector and the location detector and determines whether the detected acceleration is due to vehicle loading based on the received information; and a timer, wherein: the processor is configured to start the timer when the loading is determined to start; the processor is configured to stop the timer when the loading has completed; characterised in that the processor is configured to record the time taken to load the vehicle from the start to the completion measured by the timer, wherein the acceleration detector is a triaxial accelerometer, wherein the processor is configured to determine whether the vehicle is at a loading or unloading site, based on information received from the location detector, wherein the processor is configured to count a number of shovel loads and determine when vehicle loading is complete based on the counted number. an acceleration detector provided on the vehicle; a location detector for detecting the vehicle's location; a processor which receives information detected by the acceleration detector and the location detector and determines whether the detected acceleration is due to vehicle loading based on the received information; and a timer, wherein: the processor is configured to start the timer when the loading is determined to start; the processor is configured to stop the timer when the loading has completed; characterised in that the processor is configured to record the time taken to load the vehicle from the start to the completion measured by the timer, wherein the acceleration detector is a triaxial accelerometer, wherein the processor is configured to determine whether the vehicle is at the processor is configured to start the timer when the loading is determined to start; the processor is configured to stop the timer when the loading has completed; characterised in that the processor is configured to record the time taken to load the vehicle from the start to the completion measured by the timer, wherein the acceleration detector is a triaxial accelerometer, wherein the processor is configured to determine whether the vehicle is at a loading or unloading site, based on information received from the location detector, wherein the processor is configured to count a number of shovel loads and determine when vehicle loading is complete based on the counted number.
Household ironing appliance comprising a case including a tank and a pump (4; 104) supplied with liquid by said tank, characterised in that said pump (4; 104) is mounted on a supporting member (5; 105) consisting of a part which is assembled in said case and in that said pump (4; 104) is mounted on the supporting member (5; 105) by means of an elastic part (6; 106) inserted between the pump (4; 104) and the supporting member (5; 105).
An evaporator for a refrigerant circuit, in particular for a motor vehicle, comprising an evaporator region, wherein a refrigerant that flows through the evaporator region absorbs heat from an external region in the evaporator region, wherein the evaporator region is disposed on the inlet side downstream of a first expansion device, in the direction of the refrigerant flow, wherein a heat-exchanger element is provided between the evaporator region and the first expansion device, wherein heat from the refrigerant upstream of the evaporator region can be transferred to the refrigerant downstream of the evaporator region, characterized in that a second expansion device is provided on the inlet side, between the heat-exchanger element and the evaporator region, and wherein the first expansion device is designed as the only interface of the evaporator region and the heat-exchanger element with the remainder of the refrigerant circuit, wherein the first expansion device is in the form of a thermostatic expansion valve in particular, wherein the heat-exchanger element is in the form of a section of channels (2a, 2b) which are parallel, wherein at least one inflow channel engages in thermal exchange with at least one return channel via a partition.
A coupler having a structure comprising an untapered multi-clad fiber and a plurality of tapered pump fibers (10, 11, 12, 13, 14, 15), each of the tapered pump fibers comprising a converging tapered portion having an extremity, characterized in that - the converging tapered portions are substantially laterally coupled in a twisting arrangement to the multi-clad fiber such that the extremities of the converging tapered portions are all substantially laterally aligned with a longitudinal location around the multi-clad fiber, - the numerical apertures of the pump fibers (10, 11, 12, 13, 14, 15) and of the multi-clad fiber and are so adjusted longitudinally as to provide a desired pump coupling and desired brightness efficiency; - the coupler being cleaved at the longitudinal location on the multi-clad fiber and the section with the converging tapered portions is spliced to an output multi-clad fiber that is similar or identical to the multi-clad fiber to which the converging tapered portions are coupled. - the converging tapered portions are substantially laterally coupled in a twisting arrangement to the multi-clad fiber such that the extremities of the converging tapered portions are all substantially laterally aligned with a longitudinal location around the multi-clad fiber, - the numerical apertures of the pump fibers (10, 11, 12, 13, 14, 15) and of the multi-clad fiber and are so adjusted longitudinally as to provide a desired pump coupling and desired brightness efficiency; - the coupler being cleaved at the longitudinal location on the multi-clad fiber and the section with the converging tapered portions is spliced to an output multi-clad fiber that is similar or identical to the multi-clad fiber to which the converging tapered portions are coupled.
A heater assembly comprising: a lower tank that is provided with an inlet and an outlet and has a first space; a heater case that covers the first space, has at least one heat transfer pocket that is situated in the first space, and has a second space; at least one heating module that is inserted into the at least one heat transfer pocket such that a terminal thereof is situated in the second space; a bus bar block which is accommodated in the second space and to which the terminal is connected; and a PCB module that controls the at least one heating module, wherein the bus bar block comprises: a bus bar that contacts the terminal; and a first bus bar plate which has a terminal through-hole, through which the terminal passes, and on which the bus bar is arranged, characterized in that the bus bar block further comprises a second bus bar plate that is coupled to the first bus bar plate, and the bus bar is fixed to at least one of the first bus bar plate and the second bus bar plate. a lower tank that is provided with an inlet and an outlet and has a first space; a heater case that covers the first space, has at least one heat transfer pocket that is situated in the first space, and has a second space; at least one heating module that is inserted into the at least one heat transfer pocket such that a terminal thereof is situated in the second space; a bus bar block which is accommodated in the second space and to which the terminal is connected; and a PCB module that controls the at least one heating module, wherein the bus bar block comprises: a bus bar that contacts the terminal; and a first bus bar plate which has a terminal through-hole, through which the terminal passes, and on which the bus bar is arranged, a bus bar that contacts the terminal; and a first bus bar plate which has a terminal through-hole, through which the terminal passes, and on which the bus bar is arranged, characterized in that the bus bar block further comprises a second bus bar plate that is coupled to the first bus bar plate, and the bus bar is fixed to at least one of the first bus bar plate and the second bus bar plate.