mhurhangee/ep-ind-claims huggingface dataset:
A working machine comprising: a vehicle body; a traveling device that supports the vehicle body; a drive that drives the traveling device and has a drive motor that drives the traveling device; a cabin that accommodates an operator seat, a hood provided at a front portion of the vehicle body, the working machine being characterized in that the drive has a fuel cell that supplies electric power to the drive motor, the fuel cell being disposed in an inside of the hood, a controller that controls power supply from the fuel cell to the drive motor, and a hydrogen tank that supplies a hydrogen gas for fuel to the fuel cell, the hydrogen tank being disposed above a ceiling wall defining an internal space of the cabin. a vehicle body; a traveling device that supports the vehicle body; a drive that drives the traveling device and has a drive motor that drives the traveling device; a cabin that accommodates an operator seat, a hood provided at a front portion of the vehicle body, the working machine being characterized in that the drive has a fuel cell that supplies electric power to the drive motor, the fuel cell being disposed in an inside of the hood, a controller that controls power supply from the fuel cell to the drive motor, and a hydrogen tank that supplies a hydrogen gas for fuel to the fuel cell, the hydrogen tank being disposed above a ceiling wall defining an internal space of the cabin. a fuel cell that supplies electric power to the drive motor, the fuel cell being disposed in an inside of the hood, a controller that controls power supply from the fuel cell to the drive motor, and a hydrogen tank that supplies a hydrogen gas for fuel to the fuel cell, the hydrogen tank being disposed above a ceiling wall defining an internal space of the cabin.
A generator controller for providing independent, redundant overvoltage protection for an associated generator, the generator controller comprising: a generator control unit, GCU, that monitors an output of the generator at a first point of regulation and in response regulates the generator output and provides overvoltage protection that includes at least one of tripping a first generator control relay, first GCR, to remove excitation from an exciter winding, and tripping a generator line contactor, GLC, to disconnect the generator output from a bus; and an overvoltage protection unit, OPU, that monitors the output of the generator at a second point of regulation and in response provides overvoltage protection that includes at least one of tripping a second generator control relay, second GCR, to remove excitation from the exciter winding and tripping the GLC to disconnect the generator output from the bus; characterised in that the OPU further includes: a rectifier that receives the generator output provided at the second point of regulation and converts the generator output from an alternating current, AC, waveform to a direct current, DC, voltage for provision to a DC link; and a voltage clamping circuit connected to receive the DC voltage provided on the DC link, the voltage clamping circuit including a capacitor and a switching device connected across the DC link, wherein the OPU turns On the switching device to dissipate energy on the output of the generator. a generator control unit, GCU, that monitors an output of the generator at a first point of regulation and in response regulates the generator output and provides overvoltage protection that includes at least one of tripping a first generator control relay, first GCR, to remove excitation from an exciter winding, and tripping a generator line contactor, GLC, to disconnect the generator output from a bus; and an overvoltage protection unit, OPU, that monitors the output of the generator at a second point of regulation and in response provides overvoltage protection that includes at least one of tripping a second generator control relay, second GCR, to remove excitation from the exciter winding and tripping the GLC to disconnect the generator output from the bus; characterised in that the OPU further includes: a rectifier that receives the generator output provided at the second point of regulation and converts the generator output from an alternating current, AC, waveform to a direct current, DC, voltage for provision to a DC link; and a voltage clamping circuit connected to receive the DC voltage provided on the DC link, the voltage clamping circuit including a capacitor and a switching device connected across the DC link, wherein the OPU turns On the switching device to dissipate energy on the output of the generator.
Projection apparatus for the holographic reconstruction of a scene, having at least one light source for sufficiently coherent light and at least one light modulation device for generating an encoded wavefront of the scene, characterized by imaging means for imaging a Fourier transform of the light modulated by the light modulation device (2, 2R, 2G, 2B) onto an optical element serving as a screen, and for imaging the encoded wavefront (8, 8R, 8G, 8B, 8L) into at least one virtual observer window (11, 11R, 11L, 24R, 24L, 28R, 28L) of an observer plane, and at least one deflection means between the light modulation device (2, 2R, 2G, 2B) and the optical element serving as a screen for tracking the observer window (11, 11R, 11L, 24R, 24L, 28R, 28L) in accordance with a change in an eye position of at least one observer.
A process of producing a tea product comprising the steps of: a. incubating fresh leaf at a temperature in the range 4°C to 60 °C under anaerobic conditions for a period of 4 to 36 hours; b. subjecting the incubated leaf to comminution to produce comminuted dhool; and c. subjecting the comminuted dhool to a step of shear for 30 seconds to 15 minutes by passing the dhool though an instrument with shear rate in the range of 5000 /s to 25000 /s wherein the shear rate is defined as: Shear Rate = π ∗ D ∗ N H wherein D is the shaft diameter, H is the channel depth and N is the rotational speed, and wherein the filling percentage of the dhool in the instrument is in the range from 40 to 80% of the capacity. a. incubating fresh leaf at a temperature in the range 4°C to 60 °C under anaerobic conditions for a period of 4 to 36 hours; b. subjecting the incubated leaf to comminution to produce comminuted dhool; and c. subjecting the comminuted dhool to a step of shear for 30 seconds to 15 minutes by passing the dhool though an instrument with shear rate in the range of 5000 /s to 25000 /s wherein the shear rate is defined as: Shear Rate = π ∗ D ∗ N H wherein D is the shaft diameter, H is the channel depth and N is the rotational speed, and wherein the filling percentage of the dhool in the instrument is in the range from 40 to 80% of the capacity.
Cathode active material powder for a nonaqueous electrolyte rechargeable battery, said cathode active material powder having a composition represented by formula: Li x-w Na w Co 1-y M y O 2+z wherein x, y, z, and w satisfy 0.950 ≤ x ≤ 1.100, 0.005 < y ≤ 0.050, -0.1 ≤ z ≤ 0.1, 0 ≤ w ≤ 0.020, respectively; M is one or more elements selected from the group consisting of K, Mg, Ca, Y, rare earth elements, Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, W, Mn, Fe, Ni, Cu, Ag, Zn, B, Al, Ga, C, Si, Sn, N, P, S, F, and Cl, and a core-shell structure consisting of a lithium-containing composite oxide region as a core and a Li-ion-conductive oxide region as a shell, wherein said core comprises Li, Co, and oxygen, and has a Co concentration of not higher than 90 % as calculated by formula: ( ( Co concentration on shell external surface) / ( Co concentration at shell boundary of core / shell structure)) × 100 and wherein said shell is an amorphous layer comprising La, Ti, Co, and oxygen, covering said core at least partly.
Method for the additive manufacturing of a three-dimensional workpiece in which a thermoplastic material is changed by means of heating to a liquid phase and selectively applied at locations which are predetermined by the shape and the dimensions of the workpiece, wherein the workpiece is built up in layers on a substrate carrier, characterized in that the workpiece which is built up in layers on the substrate carrier is moved to cool and solidify the material from a construction chamber, which is preferably heated, into a cooling chamber which is separated from the construction chamber by a movable wall, and in that, after the cooling and solidification of the material, the substrate carrier with the workpiece is removed from the cooling chamber and replaced with a still unprinted substrate carrier. characterized in that the workpiece which is built up in layers on the substrate carrier is moved to cool and solidify the material from a construction chamber, which is preferably heated, into a cooling chamber which is separated from the construction chamber by a movable wall, and in that, after the cooling and solidification of the material, the substrate carrier with the workpiece is removed from the cooling chamber and replaced with a still unprinted substrate carrier.
A see-through security element (14, 20) for securing valuable articles, the see-through security element comprising, present on a carrier, a feature region (16, 24) having a luminescent feature, in which - the feature region comprises a background print having a visual top-view region, a luminescent region and a see-through region, the see-through region depicting, within the background print, a hidden piece of image information, - the visual top-view region and the luminescent region together comprise at least two color regions (36, 38) that have in each case a color that is visible in the visible spectral range and a luminescent color, - the see-through region is formed by a region of higher transmittance within the visual top-view region, - the visual top-view region, the luminescent region and the see-through region are covered by a camouflage print that, in top view, makes the see-through region practically not perceptible within the background print, while, due to its higher transmittance, when looked through, the see-through region is perceptible and displays the hidden piece of image information, characterized in that - the color regions of the visual top-view region and of the luminescent region have the same color that is visible in the visible spectral range, but different luminescent colors. - the feature region comprises a background print having a visual top-view region, a luminescent region and a see-through region, the see-through region depicting, within the background print, a hidden piece of image information, - the visual top-view region and the luminescent region together comprise at least two color regions (36, 38) that have in each case a color that is visible in the visible spectral range and a luminescent color, - the see-through region is formed by a region of higher transmittance within the visual top-view region, - the visual top-view region, the luminescent region and the see-through region are covered by a camouflage print that, in top view, makes the see-through region practically not perceptible within the background print, while, due to its higher transmittance, when looked through, the see-through region is perceptible and displays the hidden piece of image information, characterized in that - the color regions of the visual top-view region and of the luminescent region have the same color that is visible in the visible spectral range, but different luminescent colors.
A method for X-ray nano-radiography and nanotomography using a scanning electron microscope, first comprising the directing of an electron beam projecting from a scanning electron microscope to a point on the surface of a sample, further the detection of reflected and secondary particles by at least one detector including the recording of data relating to the reflection and emission parameters of a given point, and further comprising repeating scanning at all points of the scanned surface of the sample, wherein simultaneously with the impact of the electron beam onto the point on the scanned surface of the sample there is emitted bremsstrahlung and fluorescent X-ray radiation, characterized in that this impact point is also the focal point of the emitted bremsstrahlung and fluorescent X-ray radiation, and that the bremsstrahlung and fluorescent X-ray radiation projecting from the sample is detected by at least one imaging detector arranged behind the sample, whereupon the image of attenuation of bremsstrahlung and/or fluorescent X-ray radiation is recorded, and after the recording of the images of all focal points, the internal structure of the sample is modeled using computer tomography.
An RF antenna device for an MRI device of the horizontal magnetic field type, the RF antenna device being configured for transmission and/or reception of a signal, the RF antenna device comprising: a cylindrical conductor having a cylindrical shape and configured to function as a ground plane, a ribbon-shaped conductor having a length longer than the circumference of the cylindrical conductor, and a transmission and/or reception means connected to the cylindrical conductor and the ribbon-shaped conductor, which is adapted to transmit and/or to receive signals to and/or from the RF antenna device, wherein the ribbon-shaped conductor is disposed on the cylindrical surface inside of the cylindrical conductor in the form of a loop so as to generate a magnetic field having a component perpendicular to the central axis of the cylindrical conductor in a sensitivity region of the RF antenna device inside of the cylindrical conductor, characterised in that the ribbon-shaped conductor forms an electrically unbranched and continuous loop forming a closed curve extending over said cylindrical surface, the ribbon-shaped conductor having a meandering shape which reciprocates in an axial direction aligned in parallel with said central axis of the cylindrical conductor so as to cover said sensitivity region of the RF antenna device in the axial direction. a cylindrical conductor having a cylindrical shape and configured to function as a ground plane, a ribbon-shaped conductor having a length longer than the circumference of the cylindrical conductor, and a transmission and/or reception means connected to the cylindrical conductor and the ribbon-shaped conductor, which is adapted to transmit and/or to receive signals to and/or from the RF antenna device, wherein the ribbon-shaped conductor is disposed on the cylindrical surface inside of the cylindrical conductor in the form of a loop so as to generate a magnetic field having a component perpendicular to the central axis of the cylindrical conductor in a sensitivity region of the RF antenna device inside of the cylindrical conductor, characterised in that the ribbon-shaped conductor forms an electrically unbranched and continuous loop forming a closed curve extending over said cylindrical surface, the ribbon-shaped conductor having a meandering shape which reciprocates in an axial direction aligned in parallel with said central axis of the cylindrical conductor so as to cover said sensitivity region of the RF antenna device in the axial direction.
A method for determining a corrected value for the viscosity-dependent density of a fluid to be examined with a flexural resonator, wherein - a first adjustment table relating to the correlation between the density of standard fluids and the period duration of the flexural resonator is provided for a resonant natural oscillation, preferably the fundamental oscillation, and - the flexural resonator is excited to this resonant natural oscillation and during this natural oscillation the period duration of the flexural resonator for the fluid to be examined is determined and by means of the period duration the assigned density value for the fluid to be examined is determined from the adjustment table characterized in that - for the determination of a damping parameter or viscosity value of the fluid to be examined the flexural resonator is excited to the resonant oscillation at the second or a higher harmonic and during this resonant oscillation the damping parameter of the flexural resonator is determined for the fluid to be examined or the viscosity value for the fluid to be examined assigned to this damping parameter in the second adjustment table provided, and - with the measured damping parameter or the viscosity value obtained a correction is made in respect to the density value obtained in the measurement of the fluid to be examined during the resonant natural oscillation. - a first adjustment table relating to the correlation between the density of standard fluids and the period duration of the flexural resonator is provided for a resonant natural oscillation, preferably the fundamental oscillation, and - the flexural resonator is excited to this resonant natural oscillation and during this natural oscillation the period duration of the flexural resonator for the fluid to be examined is determined and by means of the period duration the assigned density value for the fluid to be examined is determined from the adjustment table characterized in that - for the determination of a damping parameter or viscosity value of the fluid to be examined the flexural resonator is excited to the resonant oscillation at the second or a higher harmonic and during this resonant oscillation the damping parameter of the flexural resonator is determined for the fluid to be examined or the viscosity value for the fluid to be examined assigned to this damping parameter in the second adjustment table provided, and - with the measured damping parameter or the viscosity value obtained a correction is made in respect to the density value obtained in the measurement of the fluid to be examined during the resonant natural oscillation.
A stencil printer for performing a print operation on a surface of an electronic substrate at a print position, the stencil printer comprising a frame, a feed mechanism to deliver the electronic substrate to the print position and to remove the electronic substrate from the print position, wherein the feed mechanism delivers and removes the electronic substrate along a first direction, a stencil, having at least one aperture through which material is dispensed on the electronic substrate, the stencil printer further comprising a stencil wiper, and a stencil movement mechanism to translate the stencil over the stencil wiper, the stencil being coupled to the stencil movement mechanism and the stencil movement mechanism being operable to move the stencil between a first position in which the stencil is disposed over the electronic substrate in a print position and a second position in which the stencil is removed from its first position in which it is disposed over the electronic substrate in a print position along a second direction, characterised in that said second direction is generally perpendicular to the first direction, in that the stencil is translated over the stencil wiper as said stencil is moved in said second direction from its first position to its second position, and in that the stencil printer further comprises an inspecting probe, coupled to the frame, to inspect a surface on the electronic substrate, the inspecting probe being movable to a position over the electronic substrate in the print position to inspect the electronic substrate in the print position, the stencil being translated over the wiper as the inspecting probe inspects the electronic substrate in the print position.
A method of wireless communication performed by a first base station, the first base station being in a dormant state, the method comprising: transmitting an information block to a user equipment, UE, while the UE is camped on a second base station, the information block comprising an indication of a random access configuration for performing at least a part of a random access procedure; performing, with the UE, at least a part of a random access procedure to reselect from the second base station to the first base station based on the indicated random access configuration; and transmitting system information during the random access procedure in a random access response to the UE, the system information indicating a second random access configuration for performing a remaining part of the random access procedure. transmitting an information block to a user equipment, UE, while the UE is camped on a second base station, the information block comprising an indication of a random access configuration for performing at least a part of a random access procedure; performing, with the UE, at least a part of a random access procedure to reselect from the second base station to the first base station based on the indicated random access configuration; and transmitting system information during the random access procedure in a random access response to the UE, the system information indicating a second random access configuration for performing a remaining part of the random access procedure.
An actuator device comprising a stack of layers comprising: - a plurality of photoresponsive layers which deform in response to incident light; and - a deformable non-photoresponsive layer positioned at least partly between each adjacent pair of the photoresponsive layers and which guides light between and to the photoresponsive layers. - a plurality of photoresponsive layers which deform in response to incident light; and - a deformable non-photoresponsive layer positioned at least partly between each adjacent pair of the photoresponsive layers and which guides light between and to the photoresponsive layers.
Method for training the locating of an anomaly discovered by means of MRI in living tissue with a medical instrument according to one of the preceding claims, comprising the following steps - In the first step, with the aid of a fastening block (44, 45), which is supported by a base plate and is linearly displaceable with respect to the tissue, a phantom is detachably fastened, the base plate and fastening block (44, 45) being invisible in MRI, and - In the second step, the base plate, with the phantom fastened thereon, is fastened below an MRI coil for the living tissue to be examined and - In the third step, the position of the MRI-imaging target body, which is contained in the MRI-invisible phantom is measured with an MRI device, and - In the fourth step, the base plate, with the phantom is separated from the MRI coil and the MRI device, and - in the fifth step, the medical instrument is guided with its tip into a target body based solely on the position data determined in the second step and - in the sixth step, the deviation of the position of the tip of the target body is visually checked through the wall of the phantom and through the gel, the gel and walls being transparent in the optical range. - In the first step, with the aid of a fastening block (44, 45), which is supported by a base plate and is linearly displaceable with respect to the tissue, a phantom is detachably fastened, the base plate and fastening block (44, 45) being invisible in MRI, and - In the second step, the base plate, with the phantom fastened thereon, is fastened below an MRI coil for the living tissue to be examined and - In the third step, the position of the MRI-imaging target body, which is contained in the MRI-invisible phantom is measured with an MRI device, and - In the fourth step, the base plate, with the phantom is separated from the MRI coil and the MRI device, and - in the fifth step, the medical instrument is guided with its tip into a target body based solely on the position data determined in the second step and - in the sixth step, the deviation of the position of the tip of the target body is visually checked through the wall of the phantom and through the gel, the gel and walls being transparent in the optical range.