mhurhangee/ep-ind-claims huggingface dataset:
A construction machine having an exhaust gas purifying function, comprising: an engine; a fuel tank for storing fuel to be supplied to the engine; a liquid reductant tank for storing a liquid reductant for reducing and purifying nitrogen oxides in exhaust gas from the engine; and a tank cover for covering the liquid reductant tank, characterized in that: the fuel tank has an upper surface which includes a high-position surface and a low-position surface located at a lower position than the high-position surface and adjacent to the high-position surface through a step; the tank cover is provided just above the low-position surface and at a height position approximately equal to that of the high-position surface to define a liquid reductant tank installation space between the tank cover and the low-position surface; and the liquid reductant tank has a replenishment port for replenishing the liquid reductant from outside thereof to the liquid reductant tank, and is installed in the liquid reductant tank installation space in such a posture that the replenishment port is close to a lower surface of the tank cover. an engine; a fuel tank for storing fuel to be supplied to the engine; a liquid reductant tank for storing a liquid reductant for reducing and purifying nitrogen oxides in exhaust gas from the engine; and a tank cover for covering the liquid reductant tank, characterized in that: the fuel tank has an upper surface which includes a high-position surface and a low-position surface located at a lower position than the high-position surface and adjacent to the high-position surface through a step; the tank cover is provided just above the low-position surface and at a height position approximately equal to that of the high-position surface to define a liquid reductant tank installation space between the tank cover and the low-position surface; and the liquid reductant tank has a replenishment port for replenishing the liquid reductant from outside thereof to the liquid reductant tank, and is installed in the liquid reductant tank installation space in such a posture that the replenishment port is close to a lower surface of the tank cover.
Method for manufacturing a curved window system of a building, the system being provided with glazing panels, and with elements (1, 2) which extend along edges of the panels, the method including: - providing a flat sheet of metal base material; - manufacturing a metal frame, having at least one panel opening, out of the flat base material; - curving the metal frame out of a respective first flat plane to a desired curvature, such that at least one edge of the panel opening is curved; - joining a plurality of flat elongated strip-shaped elements with the frame along the edges of the panel opening, wherein prior to the joining at least one of the flat elongated elements has a curvature in a respective second plane that extends substantially in parallel with respect to mutually faced-away longitudinal side surfaces of that element, the curvature of the element being such that it can be joined with a first side surface of the metal frame along a respective curved edge of the panel opening; and - positioning a panel onto the curved metal frame, the lateral sides of the panel being at least partly arranged between side surfaces of the flat elongated elements. - providing a flat sheet of metal base material; - manufacturing a metal frame, having at least one panel opening, out of the flat base material; - curving the metal frame out of a respective first flat plane to a desired curvature, such that at least one edge of the panel opening is curved; - joining a plurality of flat elongated strip-shaped elements with the frame along the edges of the panel opening, wherein prior to the joining at least one of the flat elongated elements has a curvature in a respective second plane that extends substantially in parallel with respect to mutually faced-away longitudinal side surfaces of that element, the curvature of the element being such that it can be joined with a first side surface of the metal frame along a respective curved edge of the panel opening; and - positioning a panel onto the curved metal frame, the lateral sides of the panel being at least partly arranged between side surfaces of the flat elongated elements.
A circuit, comprising: an equalization circuit (110, 200) configured and arranged to provide equalization of an input signal in the frequency domain by converging on symbols of the input signal and provide an output of channel-equalized data at an output port for further processing in the time domain; a processing circuit including a noise-whitening filter (120, 331) having a noise predictor, the noise-whitening filter and the noise predictor being configured and arranged to filter colored noise in the time domain from the output of channel-equalized data provided by the equalization circuit; and a sequencer circuit configured and arranged to control operation of the noise-whitening filter by detecting an indication of convergence of the symbols of the input signal and, in response to the detection, causing the noise-whitening filter to commence suppression of colored noise from a signal corresponding to or derived from the signal output by the equalization circuit (110, 200) when the equalization circuit (110, 200) converges; wherein the equalization circuit (110, 200) is further configured and arranged to provide equalization of the input signal in the frequency domain by sampling data from a high-speed serial stream, carried at a rate of at least 800 megabits per second. an equalization circuit (110, 200) configured and arranged to provide equalization of an input signal in the frequency domain by converging on symbols of the input signal and provide an output of channel-equalized data at an output port for further processing in the time domain; a processing circuit including a noise-whitening filter (120, 331) having a noise predictor, the noise-whitening filter and the noise predictor being configured and arranged to filter colored noise in the time domain from the output of channel-equalized data provided by the equalization circuit; and a sequencer circuit configured and arranged to control operation of the noise-whitening filter by detecting an indication of convergence of the symbols of the input signal and, in response to the detection, causing the noise-whitening filter to commence suppression of colored noise from a signal corresponding to or derived from the signal output by the equalization circuit (110, 200) when the equalization circuit (110, 200) converges; wherein the equalization circuit (110, 200) is further configured and arranged to provide equalization of the input signal in the frequency domain by sampling data from a high-speed serial stream, carried at a rate of at least 800 megabits per second.
An image display apparatus capable of generating image data based on an electric signal generated by receiving processing of a receiving device, displaying images based on the generated image data, and outputting the image data to an external device, comprising: an output unit adapted to be electrically connected to the receiving device at the time of use; an input unit adapted to input the electric signal output from the output unit; a display unit adapted to display image data based on the electric signal input by the input unit; and an output terminal adapted to be electrically connected to the external device and to output the image data based on the electric signal input by the input unit to the external device, characterized in that the output unit is adapted to output the electric signal input from the receiving device non-linearly not using a conducting wire to the input unit, the input unit is electrically insulated from the output unit, the output unit and the input unit are formed in a transmission unit formed detachably relative to an image display apparatus main body, and the output terminal is configured to electrically connect to the input unit only when the transmission unit is attached to the image display apparatus main body. an output unit adapted to be electrically connected to the receiving device at the time of use; an input unit adapted to input the electric signal output from the output unit; a display unit adapted to display image data based on the electric signal input by the input unit; and an output terminal adapted to be electrically connected to the external device and to output the image data based on the electric signal input by the input unit to the external device, characterized in that the output unit is adapted to output the electric signal input from the receiving device non-linearly not using a conducting wire to the input unit, the input unit is electrically insulated from the output unit, the output unit and the input unit are formed in a transmission unit formed detachably relative to an image display apparatus main body, and the output terminal is configured to electrically connect to the input unit only when the transmission unit is attached to the image display apparatus main body.
A method for providing timing recovery of a received digital data stream in a receiver including a series of consecutive data samples, said method comprising: separating the digital data stream into a series of consecutive observation periods where each observation period includes a predetermined number of the consecutive data samples; identifying a series of consecutive timing recovery data samples in each observation period where a number of the timing recovery data samples is less than the predetermined number of the consecutive data samples in the observation period and where the timing recovery data samples are used for timing recovery and other data samples in the observation period are not used for timing recovery; and using the consecutive timing recovery data samples in each observation period to provide the timing recovery where the timing recovery of the data stream using the timing recovery data samples is performed during an entire time period that each of the observation periods in the digital data stream is being received by the receiver, wherein control logic is provided that receives the digital data stream at a particular clock rate and outputs only the timing recovery data samples at a slower clock rate than the particular clock rate, and wherein the control logic provides only the timing recovery data samples at the slower clock rate to a timing recovery circuit in the receiver. separating the digital data stream into a series of consecutive observation periods where each observation period includes a predetermined number of the consecutive data samples; identifying a series of consecutive timing recovery data samples in each observation period where a number of the timing recovery data samples is less than the predetermined number of the consecutive data samples in the observation period and where the timing recovery data samples are used for timing recovery and other data samples in the observation period are not used for timing recovery; and using the consecutive timing recovery data samples in each observation period to provide the timing recovery where the timing recovery of the data stream using the timing recovery data samples is performed during an entire time period that each of the observation periods in the digital data stream is being received by the receiver, wherein control logic is provided that receives the digital data stream at a particular clock rate and outputs only the timing recovery data samples at a slower clock rate than the particular clock rate, and wherein the control logic provides only the timing recovery data samples at the slower clock rate to a timing recovery circuit in the receiver.
Device for handling and/or transporting, respectively, workpieces, in particular for the removal of injection-molded items from an injection-molding machine, wherein a handling robot having a programmable control and regulating unit is provided that comprises a gripper having at least one suction nozzle for grasping of the workpiece or fixating it by suction, respectively, characterized in that in the gripper of the handling robot a distance-measuring device for continuous or permanent, respectively, detection of the distance (a 1 + a 2) from the gripper to a reference point or a reference surface, to the movable mold half with the workpiece is provided, wherein upon reaching an adjustable or determined limit value of the distance (a 1), for example at the distance (a 2), the forward movement of the handling robot is stopped, preferably in a braking operation, and that the measured value of the distance-measuring device is fed into the control and regulation unit, wherein the distance-measuring device is a light transit time measuring device, in particular a time-of-flight sensor, or a laser measuring device, which measures according to the triangulation principle.
Storm drain having an upper inlet chamber and a lower outlet chamber separated therefrom via an inlet chamber floor, wherein the outlet opening of the inlet chamber is situated considerably above the inlet chamber floor by way of a pipe or a siphon, and having a floating body and an outlet line in the outlet chamber that can be closed by means of the floating body, wherein the outlet chamber is divided into a plurality of subchambers (7, 10, 11, 12) which are divided by vertical separating walls, characterized in that a grid or honeycomb structure placed at the bottom side, i.e. on the floor of at least one of the subchambers, is introduced in at least one of the subchambers in such a way that the interior of the structure forms a plurality of sludge collection pockets which are open from above.
A method for determining whether or not a sample contains at least one of Cercospora fungus and Pseudocercospora fungus, the method comprising: (a) adding the sample to an aqueous solution containing N,N,N',N'-Tetramethyl-1,4-phenylenediamine and 5-(2,4-disulfophenyl)-3-(2-methoxy-4-nitrophenyl)-2-(4-nitrophenyl)-2H-tetrazolium to provide a mixture; wherein the aqueous solution has a pH of not less than 5.1 and not more than 6.5; (b) irradiating the mixture with light having a wavelength of not less than 400 nanometers and not more than 500 nanometers to measure a first absorbance Ay of the mixture; (c) irradiating the mixture with light having a wavelength of more than 500 nanometers and not more than 800 nanometers to measure a second absorbance Ax of the mixture; and (d) determining that the sample contains at least one of Cercospora fungus and Pseudocercospora fungus, if a mathematical formula Ay / Ax ≥ 1.5 is satisfied. (a) adding the sample to an aqueous solution containing N,N,N',N'-Tetramethyl-1,4-phenylenediamine and 5-(2,4-disulfophenyl)-3-(2-methoxy-4-nitrophenyl)-2-(4-nitrophenyl)-2H-tetrazolium to provide a mixture; wherein the aqueous solution has a pH of not less than 5.1 and not more than 6.5; (b) irradiating the mixture with light having a wavelength of not less than 400 nanometers and not more than 500 nanometers to measure a first absorbance Ay of the mixture; (c) irradiating the mixture with light having a wavelength of more than 500 nanometers and not more than 800 nanometers to measure a second absorbance Ax of the mixture; and (d) determining that the sample contains at least one of Cercospora fungus and Pseudocercospora fungus, if a mathematical formula Ay / Ax ≥ 1.5 is satisfied.
A computer-implemented method for balancing traffic load in the presence of link failures for a network configured as a multi-rooted tree topology in which nodes are grouped into pods, the method comprising: determining effective link capacities that take into account the link failures as well as sharing of current link capacities for links of two or more paths between a sending node and a receiving node in the network; determining maximum flows for the two or more paths based at least in part on the effective link capacities; and determining weights based at least in part on the maximum flows for load balancing traffic over the two or more paths by the sending node; wherein the two or more paths are represented as subgraphs and the maximum flows are determined by finding minimum cuts in the subgraphs; the method further comprising reducing computational complexity when determining the maximum flow by differentiating healthy pods, where there are no link failures, from unhealthy pods, where there are link failures, in the network and omitting calculations for connectivity between healthy pods when finding the minimum cuts. determining effective link capacities that take into account the link failures as well as sharing of current link capacities for links of two or more paths between a sending node and a receiving node in the network; determining maximum flows for the two or more paths based at least in part on the effective link capacities; and determining weights based at least in part on the maximum flows for load balancing traffic over the two or more paths by the sending node; wherein the two or more paths are represented as subgraphs and the maximum flows are determined by finding minimum cuts in the subgraphs; the method further comprising reducing computational complexity when determining the maximum flow by differentiating healthy pods, where there are no link failures, from unhealthy pods, where there are link failures, in the network and omitting calculations for connectivity between healthy pods when finding the minimum cuts.
A cartomiser for a vapour provision system configured to selectively generate vapours with different flavour characteristics, wherein the cartomiser comprises: (i) a reservoir comprising a first vapour precursor material having a first flavour characteristic, and a second vapour precursor material having a second flavour characteristic; and (ii) at least one vaporiser (4,5) for generating vapour from the first vapour precursor material and the second vapour precursor material; wherein the first vapour precursor material and the second vapour precursor material are configured to form an inhomogeneous mixture within the reservoir; wherein the first vapour precursor material is configured to provide vapour with the first flavour characteristic; and wherein the second vapour precursor material is configured to provide vapour with the second flavour characteristic, wherein the second flavour characteristic is different from the first flavour characteristic. (i) a reservoir comprising a first vapour precursor material having a first flavour characteristic, and a second vapour precursor material having a second flavour characteristic; and characteristic, and a second vapour precursor material having a second flavour characteristic; and (ii) at least one vaporiser (4,5) for generating vapour from the first vapour precursor material and the second vapour precursor material;
A method for producing dental composite blocks, comprising the steps: - providing an in particular substantially hollow-cylindrical device having a first and a second opening (2, 3) for the continuous production of a dental composite block, in particular a container open on two sides, - providing a curable composite material, - providing a temperature control unit, - introducing, in particular continuously introducing, the curable composite material into the device through the first opening, - curing the in particular continuously introduced composite material by an energy input by means of the temperature control unit, - further supplying, in particular continuously further supplying, curable composite material through the first opening of the substantially hollow-cylindrical device, - discharging the cured composite material from the second opening of the device. - providing an in particular substantially hollow-cylindrical device having a first and a second opening (2, 3) for the continuous production of a dental composite block, in particular a container open on two sides, - providing a curable composite material, - providing a temperature control unit, - introducing, in particular continuously introducing, the curable composite material into the device through the first opening, - curing the in particular continuously introduced composite material by an energy input by means of the temperature control unit, - further supplying, in particular continuously further supplying, curable composite material through the first opening of the substantially hollow-cylindrical device, - discharging the cured composite material from the second opening of the device.
An optical see-through head-mounted display device, comprising: a see-through lens extending between a user's eye and a real-world scene when the display device is worn by the user, the see-through lens comprises an opacity filter having a plurality of pixels, each pixel is controllable to adjust an opacity of the pixel, and a display component; an augmented reality emitter which emits light to the user's eye using the display component, the light represents an augmented reality image having a shape; at least one control circuit which controls the opacity filter to provide an increased opacity for pixels which are behind the shape of the augmented reality image, from a perspective of the user's eye, the at least one control circuit further controlling the opacity filter to provide an increased opacity for pixels which surround a perimeter of the shape of the augmented reality image within a region of uniform thickness. a see-through lens extending between a user's eye and a real-world scene when the display device is worn by the user, the see-through lens comprises an opacity filter having a plurality of pixels, each pixel is controllable to adjust an opacity of the pixel, and a display component; an augmented reality emitter which emits light to the user's eye using the display component, the light represents an augmented reality image having a shape; at least one control circuit which controls the opacity filter to provide an increased opacity for pixels which are behind the shape of the augmented reality image, from a perspective of the user's eye, the at least one control circuit further controlling the opacity filter to provide an increased opacity for pixels which surround a perimeter of the shape of the augmented reality image within a region of uniform thickness.
Bimodal diagnostic probe with optical and ultrasonic imaging comprising a main body with at least one ultrasonic transducer at its front end, said probe also comprising at least one device comprising comprising a shell extending along a longitudinal direction between a back end and a front end that will at least partly form the front end of said probe, said device also comprising means of illumination mounted on said front end of the shell so as to provide illumination outside the shell, and collection or detection means mounted on said front end of the shell so as to collect or detect an optical signal produced outside said shell, characterised in that said shell comprises attachment means (80, 82) so that it can be reversibly assembled around the main body of the probe, with said illumination means and collection or detection means (72a, 72b) mounted on this shell.
A compound of formula I, wherein R 1 is halogen, and R 2 is selected from the group consisting of pyridinyl, pyrazinyl, phenyl, cyclopentyl, isopropyl and sec-butyl, or pharmaceutically acceptable salts thereof. R 1 is halogen, and R 2 is selected from the group consisting of pyridinyl, pyrazinyl, phenyl, cyclopentyl, isopropyl and sec-butyl,