mhurhangee/ep-ind-claims huggingface dataset:
A crystalline solid of crystalline form I of -methyl 6-((3S,8S,9S,10R,13S,14S,17R)-3-(((2S,5S,6R)-5-acetoxy-6-(acetoxymethyl)-5,6-dihydro-2H-pyran-2-yl)oxy)-10,13-dimethyl-2,3,4,7,8,9,10,11,12,13,14,15,16,17-tetradecahydro-1H-cyclopenta[a]phenanthrene-17-yl)hept-5-enoate having peaks at the following 2Θ diffraction angles in the X-ray powder diffraction pattern: 16.0°±0.2°, 19.5°±0.2°, 18.3°±0.2°, 15.1°±0.2°, 21.9°±0.2°.
An outdoor cooling unit (100, 100A, 100B, 100C) in a vehicle air-conditioning apparatus, the outdoor cooling unit (100, 100A, 100B, 100C) comprising: - a housing that includes a suction portion and a discharge portion; - an axial fan that includes a boss rotatable about a shaft center and a plurality of blades arranged on an outer circumferential portion of the boss and that is arranged directly below the suction portion, the suction portion being an opening in a part of a top of the housing; - a casing (3, 3C) that surrounds the axial fan; - a motor that supports the axial fan and that is configured to rotate the axial fan; and - a heat exchanger arranged adjacent to the discharge portion in the housing, wherein the outdoor cooling unit (100B, 100C) is configured such that an angle between a normal line to a suction plane of the suction portion and a normal line to a discharge plane of the discharge portion is acute and such that air inside the housing flows in a substantially checkmark-shape, substantially V shape or substantially U shape, characterised in that: each of the blades is configured such that a chord center line is convexly curved toward a downstream side of airflow over an entire area in a radial direction, the chord center line being formed by connecting chord central points from an inner circumferential end to an outer circumferential end of the blade and projecting the connected chord central points on a plane containing a rotating shaft, and in that 0.15 < Lf / Lh < 0.5 is satisfied, where Lh is the height of the housing from a base of the housing to the suction portion, and Lf is the axial height of the blade at the outer circumferential end. - a housing that includes a suction portion and a discharge portion; - an axial fan that includes a boss rotatable about a shaft center and a plurality of blades arranged on an outer circumferential portion of the boss and that is arranged directly below the suction portion, the suction portion being an opening in a part of a top of the housing; - a casing (3, 3C) that surrounds the axial fan; - a motor that supports the axial fan and that is configured to rotate the axial fan; and - a heat exchanger arranged adjacent to the discharge portion in the housing,
A CT scanning apparatus comprising; a gantry, rotateable about an axis of rotation; an x-ray source mounted on the gantry and locatable at a position offset from the axis of rotation, and capable of emitting x-radiation at a selected one of at least two different x-ray energies; a detector for the x-ray source, positionable opposite the source thereby to detect the x-rays after attenuation by an investigative subject located substantially at the axis of rotation; an angular encoder for detecting an angular position of the gantry; a control apparatus with control over rotation of the gantry and over operation of the x-ray source, and able to receive information from the angular encoder; characterised in that the control apparatus is arranged to: cause a first rotation of the gantry and trigger the x-ray source to emit a pulse of x-radiation at a first x-ray energy when the angular encoder reports that the gantry is at each of a plurality of predetermined angular locations, and cause a second rotation of the gantry and trigger the x-ray source to emit a pulse of x-radiation at a second x-ray energy differing from the first x-ray energy when the angular encoder reports that the gantry is at each of the same plurality of predetermined angular locations. a gantry, rotateable about an axis of rotation; an x-ray source mounted on the gantry and locatable at a position offset from the axis of rotation, and capable of emitting x-radiation at a selected one of at least two different x-ray energies; a detector for the x-ray source, positionable opposite the source thereby to detect the x-rays after attenuation by an investigative subject located substantially at the axis of rotation; an angular encoder for detecting an angular position of the gantry; a control apparatus with control over rotation of the gantry and over operation of the x-ray source, and able to receive information from the angular encoder; characterised in that the control apparatus is arranged to: cause a first rotation of the gantry and trigger the x-ray source to emit a pulse of x-radiation at a first x-ray energy when the angular encoder reports that the gantry is at each of a plurality of predetermined angular locations, and cause a second rotation of the gantry and trigger the x-ray source to emit a pulse of x-radiation at a second x-ray energy differing from the first x-ray energy when the angular encoder reports that the gantry is at each of the same plurality of predetermined angular locations. cause a first rotation of the gantry and trigger the x-ray source to emit a pulse of x-radiation at a first x-ray energy when the angular encoder reports that the gantry is at each of a plurality of predetermined angular locations, and cause a second rotation of the gantry and trigger the x-ray source to emit a pulse of x-radiation at a second x-ray energy differing from the first x-ray energy when the angular encoder reports that the gantry is at each of the same plurality of predetermined angular locations.
A method for cleaning the vehicle tire full-molds having profile, comprising steps of • pre-treatment of contaminated full-mold by at least one ultrasonic cleaning apparatus, • Re-cleaning of depurated full-mold by dry ice process in first cleaning station • cleaning of the full-mold with a multiple number of ultrasonic devices (51, 52, 53) by immersing into a cleaning liquid in second cleaning station, • rinsing full-mold in rinsing station, via spraying from at least one jet • putting full mold in passivation station, and • drying full mold in drying station. • pre-treatment of contaminated full-mold by at least one ultrasonic cleaning apparatus, • Re-cleaning of depurated full-mold by dry ice process in first cleaning station • cleaning of the full-mold with a multiple number of ultrasonic devices (51, 52, 53) by immersing into a cleaning liquid in second cleaning station, • rinsing full-mold in rinsing station, via spraying from at least one jet • putting full mold in passivation station, and • drying full mold in drying station.
A method for adjusting an image quality of a 3-dimension image of a 3D display apparatus which is connected to 3D glasses to display the 3D image, the method comprising: the 3D display apparatus communicating with the 3D glasses to acquire attribute information of the 3D glasses, the communicating with the 3D glasses comprises receiving a signal including the attribute information from a 3D glasses communicator of the 3D glasses, wherein the attribute information is stored on a storage unit of the 3D glasses; and the 3D display apparatus adjusting the image quality of the 3D image to be displayed according to the attribute information of the 3D glasses, wherein the acquired attribute information includes information on optical characteristics of the 3D glasses affecting an image quality of the 3D image passing through the glasses, and the adjusting of the image quality is undertaken using the information on optical characteristic of the 3D glasses. the 3D display apparatus communicating with the 3D glasses to acquire attribute information of the 3D glasses, the communicating with the 3D glasses comprises receiving a signal including the attribute information from a 3D glasses communicator of the 3D glasses, wherein the attribute information is stored on a storage unit of the 3D glasses; and the 3D display apparatus adjusting the image quality of the 3D image to be displayed according to the attribute information of the 3D glasses, wherein the acquired attribute information includes information on optical characteristics of the 3D glasses affecting an image quality of the 3D image passing through the glasses, and the adjusting of the image quality is undertaken using the information on optical characteristic of the 3D glasses.
Digital sampling circuit for a secondary clock-pulse signal to be monitored for clock-pulse failure by means of a primary clock-pulse signal, • comprising a flip-flop having - a clock input, - a data input, - a Q output, and - an asynchronous reset input, • and comprising an n-bit counter having - a clock-pulse input, - an asynchronous reset input, and - a count-value output, the flip-flop and the n-bit counter being electrically interconnected, and • n being ≥ 2, • the primary clock-pulse signal being applied on the clock-pulse input of the n-bit counter, • the secondary clock-pulse signal being applied on the clock input of the flip-flop, • a constant signal being applied on the data input of the flip-flop, • the Q output of the flip-flop being connected to the reset input of the n-bit counter, characterised in that • the count-value output of the n-bit counter is connected via an interposed logic gate and a feedback loop to the asynchronous reset input of the flip-flop in such a way that resetting the n-bit counter resets the flip-flop. • comprising a flip-flop having - a clock input, - a data input, - a Q output, and - an asynchronous reset input, - a clock input, - a data input, - a Q output, and - an asynchronous reset input, • and comprising an n-bit counter having - a clock-pulse input, - an asynchronous reset input, and - a count-value output, - a clock-pulse input, - an asynchronous reset input, and - a count-value output, • n being ≥ 2, • the primary clock-pulse signal being applied on the clock-pulse input of the n-bit counter, • the secondary clock-pulse signal being applied on the clock input of the flip-flop, • a constant signal being applied on the data input of the flip-flop, • the Q output of the flip-flop being connected to the reset input of the n-bit counter, characterised in that • the count-value output of the n-bit counter is connected via an interposed logic gate and a feedback loop to the asynchronous reset input of the flip-flop in such a way that resetting the n-bit counter resets the flip-flop.
A method of improving the lubrication system of a thruster of a marine vessel, the lubrication system having an oil tank and circulation means for circulating oil between the oil tank and the thruster, the thruster comprising drive means, a lower gearbox and a vertical shaft therebetween, the lubrication system further having at least one oil compartment (4, 38, 48, 64) having at least one gas cavity (68, 78) therein, the method being characterized by the step of maintaining dry atmosphere in said at least one gas cavity (68, 78).
A bleed valve module (144;244) for mounting to a support structure within an aircraft, the module comprising: a pipe (152;252) for containing a flow of bleed air, the pipe comprising a plurality of inlets (160a,160b; 260a,260b) and an outlet (160c;260c); a plurality of bleed valves (156a-156c; 256a-256c) connected to the pipe to control the flow of bleed air in the pipe; a plurality of pneumatic actuators (158a-158c; 258a-258c) connected to the plurality of bleed valves to actuate the plurality of bleed valves; and a vibration isolating element (154;254) to connect the bleed valve module to the support structure within the aircraft and isolate the bleed valve module from vibration from the support structure. a pipe (152;252) for containing a flow of bleed air, the pipe comprising a plurality of inlets (160a,160b; 260a,260b) and an outlet (160c;260c); a plurality of bleed valves (156a-156c; 256a-256c) connected to the pipe to control the flow of bleed air in the pipe; a plurality of pneumatic actuators (158a-158c; 258a-258c) connected to the plurality of bleed valves to actuate the plurality of bleed valves; and a vibration isolating element (154;254) to connect the bleed valve module to the support structure within the aircraft and isolate the bleed valve module from vibration from the support structure.
A method of forming a field emission cathode, comprising: mixing a plurality of carbon nanotubes and a solution at a particular ratio to form a base mixture, the solution comprising a water stable conducting polymer in a liquid medium; exposing the base mixture to an ultrasonic dispersion process at a power of greater than 1W/cm 2 and at a frequency of 20-50 kHz; introducing a metal oxide sol solution to the base mixture to form a field emission material precursor; exposing the field emission material precursor to an ultrasonic dispersion process at a power of less than 1W/cm 2 and at a frequency of greater than 50 kHz to form a stable solution of the field emission material precursor; introducing a polar additive into the stable solution of the field emission material precursor to form a final sol solution as a final field emission material precursor; depositing a layer of the final field emission material precursor on at least a portion of a substrate; drying the layer of the final field emission material precursor and the substrate at a temperature of 30 0 C to 150 0 C at atmosphere or under a vacuum such that the layer of the final field emission material precursor forms a uniform gel layer on the substrate; annealing the gel layer and the substrate at a temperature of 500 0 C to 1000 0 C under a vacuum such that the gel layer forms a field emission material; and activating the field emission material to form the field emission cathode. mixing a plurality of carbon nanotubes and a solution at a particular ratio to form a base mixture, the solution comprising a water stable conducting polymer in a liquid medium; exposing the base mixture to an ultrasonic dispersion process at a power of greater than 1W/cm 2 and at a frequency of 20-50 kHz; introducing a metal oxide sol solution to the base mixture to form a field emission material precursor; exposing the field emission material precursor to an ultrasonic dispersion process at a power of less than 1W/cm 2 and at a frequency of greater than 50 kHz to form a stable solution of the field emission material precursor; introducing a polar additive into the stable solution of the field emission material precursor to form a final sol solution as a final field emission material precursor; depositing a layer of the final field emission material precursor on at least a portion of a substrate; drying the layer of the final field emission material precursor and the substrate at a temperature of 30 0 C to 150 0 C at atmosphere or under a vacuum such that the layer of the final field emission material precursor forms a uniform gel layer on the substrate; annealing the gel layer and the substrate at a temperature of 500 0 C to 1000 0 C under a vacuum such that the gel layer forms a field emission material; and activating the field emission material to form the field emission cathode.
Compounds represented by Formula or. wherein A is a single bond or a divalent residue of biphenyl, triphenyl, each of which one or more hydrogen atoms attached in the carbon atoms may be replaced by a substituent other than hydrogen, wherein Z is any one selected from N, O, S, and SiR, Y is N-R, O, S or Si 2 where R is C 1-20 alkyl or aryl, R 1 and R 2 are independently selected from hydrogen and C 1-20 alkyl; X 1 to X 4 are independently selected from substituents other than spirobifluorenyl; 1, p and q are integers of from 0 to 4; m is an integer of from 0 to 3, wherein B 1 and B 2 are independently selected from hydrogen, and a heterocyclic group selected from carbazole, dibenzothiophene, dibenzofurane, acridine, dibenzosilole, and bipyridine each of which is optionally substituted by one or more substituents other than hydrogen; and with the proviso that B 1 and B 2 are not hydrogen simultaneously, with the exception of 3,6-Bis-N-carbazolyl-9,9'-spirobifluorene of the formula and further with the exception of each of which one or more hydrogen atoms attached in the carbon atoms may be replaced by a substituent other than hydrogen, wherein Z is any one selected from N, O, S, and SiR, Y is N-R, O, S or Si 2 where R is C 1-20 alkyl or aryl, R 1 and R 2 are independently selected from hydrogen and C 1-20 alkyl; X 1 to X 4 are independently selected from substituents other than spirobifluorenyl; 1, p and q are integers of from 0 to 4; m is an integer of from 0 to 3, wherein B 1 and B 2 are independently selected from hydrogen, and a heterocyclic group selected from carbazole, dibenzothiophene, dibenzofurane, acridine, dibenzosilole, and bipyridine each of which is optionally substituted by one or more substituents other than hydrogen; and with the proviso that B 1 and B 2 are not hydrogen simultaneously, with the exception of 3,6-Bis-N-carbazolyl-9,9'-spirobifluorene of the formula
A method for determining a level of solar radiation at a point of interest, the method comprising: capturing multiple sky images by a distributed network of digital cameras comprising multiple pairs or sets of digital cameras (1420, 1422) capturing sky images of a region of the sky; characterised in that the method further comprises: determining sun location parameters; generating a three-dimensional sky model based on the sky images, wherein generating the 3D sky model comprises: generating 3D object data based on the sky images to model one or more objects in the region of sky by generating a separate 3D model for each of the one or more objects based on the sky images captured by each pair or set of digital cameras, the 3D object data comprising information regarding: (i) a thickness of the one or more objects; and (ii) a continuous 3D surface mesh of the one or more objects; and generating position data to model a position of the one or more objects in the region of sky; and determining a level of solar radiation at the POI based on the position data and 3D object data of the 3D sky model and the sun location parameters, the 3D object data comprising the information regarding (i) the thickness of the one or more objects and (ii) the continuous 3D surface mesh of the one or more objects. determining sun location parameters; generating a three-dimensional sky model based on the sky images, wherein generating the 3D sky model comprises: generating 3D object data based on the sky images to model one or more objects in the region of sky by generating a separate 3D model for each of the one or more objects based on the sky images captured by each pair or set of digital cameras, the 3D object data comprising information regarding: (i) a thickness of the one or more objects; and (ii) a continuous 3D surface mesh of the one or more objects; and generating position data to model a position of the one or more objects in the region of sky; and generating 3D object data based on the sky images to model one or more objects in the region of sky by generating a separate 3D model for each of the one or more objects based on the sky images captured by each pair or set of digital cameras, the 3D object data comprising information regarding: (i) a thickness of the one or more objects; and (ii) a continuous 3D surface mesh of the one or more objects; and (i) a thickness of the one or more objects; and (ii) a continuous 3D surface mesh of the one or more objects; and generating position data to model a position of the one or more objects in the region of sky; and determining a level of solar radiation at the POI based on the position data and 3D object data of the 3D sky model and the sun location parameters, the 3D object data comprising the information regarding (i) the thickness of the one or more objects and (ii) the continuous 3D surface mesh of the one or more objects.
A level de-multiplexed Delta Sigma Modulator, DSM, based transmitter, comprising: a. a digital processing block (10, 50) adapted to digitally condition a digital input signal and to generate m-1 signal streams, m being an integer greater than 2, the digital processing block having an input and m-1 outputs, wherein the digital processing block comprises a signal components separator (12, 52), a signal components interpolator (14, 54), and an m -level DSM unit (16, 56), and wherein the m-1 outputs of the digital processing block are m -level de-multiplexed such that there is no time overlapping between at least two of the m-1 outputs; b. a signal up-conversion block (28, 58), having m-1 inputs and m-1 outputs, the inputs of the signal up-conversion block connected to the outputs of the digital processing block, the signal up-conversion block adapted to generate m-1 constant envelope Radio Frequency, RF, signals based on the m-1 signal streams obtained from the digital processing block; and c. a signal amplification block (40, 60) having m-1 inputs and one output, the inputs of the signal amplification block being connected to the outputs of the signal up-conversion block, the signal amplification block being adapted to amplify the RF signals present at its inputs, wherein the signal amplification block comprises m-1 Switching Mode Power Amplifiers SMPAs, (42, 44, SMPA1, SMPA2,..., SMPAm-1), each one of the m-1 SMPAs having an input, an output, a size, and a power handling. a. a digital processing block (10, 50) adapted to digitally condition a digital input signal and to generate m-1 signal streams, m being an integer greater than 2, the digital processing block having an input and m-1 outputs, wherein the digital processing block comprises a signal components separator (12, 52), a signal components interpolator (14, 54), and an m -level DSM unit (16, 56), and wherein the m-1 outputs of the digital processing block are m -level de-multiplexed such that there is no time overlapping between at least two of the m-1 outputs; b. a signal up-conversion block (28, 58), having m-1 inputs and m-1 outputs, the inputs of the signal up-conversion block connected to the outputs of the digital processing block, the signal up-conversion block adapted to generate m-1 constant envelope Radio Frequency, RF, signals based on the m-1 signal streams obtained from the digital processing block; and c. a signal amplification block (40, 60) having m-1 inputs and one output, the inputs of the signal amplification block being connected to the outputs of the signal up-conversion block, the signal amplification block being adapted to amplify the RF signals present at its inputs, wherein the signal amplification block comprises m-1 Switching Mode Power Amplifiers SMPAs, (42, 44, SMPA1, SMPA2,..., SMPAm-1), each one of the m-1 SMPAs having an input, an output, a size, and a power handling.
A root canal filler comprising autologous or allogeneic dental pulp stem cells, an extracellular matrix, and a CCR3 antagonist, wherein the CCR3 antagonist is selected from:; or wherein A is CH 2 or O, R 1 is NHR, wherein R is C1-C6 alkyl, R 2 is C1-C6 alkylene-phenyl, R 3 is H or C1-C6 alkyl, and R 4 is H or C1-C6 alkyl.
Collet comprising a plurality of jaws which can be moved radially relative to one another and which form a receptacle for guiding a rod to be machined in a lathe, each jaw having a rear end face, a front end face that is arranged opposite to the rear end face and is oriented in the direction of the forward movement of the rod to be machined, and in each case a side face that faces each adjacent jaw and extends between the end faces (20a, 20c), characterized by an air duct extending in at least one jaw, which air duct comprises an inlet arranged on the rear end face of the jaw and an outlet that opens onto at least one of the side faces and is intended for blowing out chips in the direction of forward movement.