mhurhangee/patent-ind-claim-en huggingface dataset:
Fish passage for overcoming a barrage height on a barrage of a dam having a water inlet on the upper side and a water outlet on the lower side and having basins that lie between the upper side and lower side and that are arranged essentially alternately one behind the other in a slope direction and said basins together form one or more meandering passages which allow the passage of water and have through-flow slots, wherein the passages are arranged in a helical manner in a water-side tower and provided at different heights of the helix are in each case two openings that have valves and communicate with one another via a regulator (R), and at the command of the regulator (R), at every water level, except for the lowest low water level (WS2), at which there is no longer any exchange of fish, these valves are regulated in a compensating manner so that the desired flow rate through the fish passage is achieved, and the openings that lie below are each closed by means of the associated valve , and a pipe tunnel is connected to the lowermost passage and leads through the barrage having an aqueduct to one or more tower fish passages that are arranged one behind the other on the air side of the barrage , and the lowermost tower fish passage leads the outflowing water of the entire fish passage down into the underwater , characterised in that , from the bottom of the upstream water upstream of the barrage , a suction pipe leads water to a descent control at the lowest passage of the water-side tower , and this water continues through a descent pipe in the pipe tunnel and the aqueduct to the air-side fish passages and parallel to their passages down into the underwater , wherein the amount of water that is flowing through the descent pipe is regulated by a slide upstream of the control basin so that the descent pipe is not completely filled with water at all water levels that occur in the upstream water and it ensures a constant flow regime for the migrating catadromous fauna.
A detection device for detecting rail defects, comprising: - at least one collection of sensors , each of said sensors being able to generate an electrical signal indicative of a distance (d n,i ) separating said sensor and the rail, and - at least one rail vehicle able to move along the rail; the collection of sensors being assembled to the rail vehicle; the rail vehicle being configured to rest on the rail in such a way that said sensors are positioned facing and some distance away from said rail; the detection device further including a friction pad comprising a substantially flat lower surface , said friction pad being assembled to the rail vehicle in such a way that the movement of said vehicle along the rail causes a sliding on said rail by said lower surface, along a longitudinal direction (X) of said friction pad; the friction pad further comprising at least one cavity formed in the lower surface, the at least one collection of sensors being housed in said cavity the detection device being characterized in that it further comprising an electronic processing device for information provided by the sensors , said device comprising at least one electronic detector for spatial coordinates and at least one on board controller , said electronic detector and said on board controller being secured to the rail vehicle , said on board controller being connected to the electronic detector and to the collection of sensors.. - at least one collection of sensors , each of said sensors being able to generate an electrical signal indicative of a distance (d n,i ) separating said sensor and the rail, and - at least one rail vehicle able to move along the rail;
A system for automatically capturing visual data of a seed placed by a seed planting machine, the system comprising: an electronic controller configured to receive a signal indicative of a seed being dispensed by the seed planting machine; and trigger a camera to capture an image of the dispensed seed in response to a determination, based on the signal, that the seed has been dispensed by the seed planting machine, wherein the camera is coupled to the seed planting machine and positioned with a field of view that includes a portion of a field surface, characterised in that , the electronic controller is configured to receive the signal indicative of the seed being dispensed by the seed planting machine by receiving a sequence of images captured by the camera , and analyzing each image in the sequence of images to determine whether a seed is present in the image, and wherein the electronic controller is configured to trigger the camera to capture the image of the dispensed seed in response to the determination by triggering the camera to capture the image of the seed in response to detecting an image in the sequence of images where the seed is present in the image. receive a signal indicative of a seed being dispensed by the seed planting machine; and trigger a camera to capture an image of the dispensed seed in response to a determination, based on the signal, that the seed has been dispensed by the seed planting machine, wherein the camera is coupled to the seed planting machine and positioned with a field of view that includes a portion of a field surface, the electronic controller is configured to receive the signal indicative of the seed being dispensed by the seed planting machine by receiving a sequence of images captured by the camera , and analyzing each image in the sequence of images to determine whether a seed is present in the image, and wherein the electronic controller is configured to trigger the camera to capture the image of the dispensed seed in response to the determination by triggering the camera to capture the image of the seed in response to detecting an image in the sequence of images where the seed is present in the image.
A wireless communication connection method, comprising: selecting, , by a first terminal , a wireless connection mode in a target application, wherein the wireless connection mode is a Wi-Fi Protected Setup, WPS, based connection mode, and determining a target identifier in an identifier list of the target application; sending, , by the first terminal by using a wireless network, a wireless connection request for the wireless connection mode to a second terminal corresponding to the target identifier; establishing, , by the first terminal , a wireless communication connection in the wireless connection mode to the second terminal , when receiving, by the first terminal by using the wireless network, a connection acknowledgement response to the wireless connection request; wherein the first terminal also sends a MAC address of a third terminal being a router or a Wi-Fi transmission device and an encryption key of the third terminal in the wireless connection mode to the second terminal when receiving the connection acknowledgement response to the connection request, and when receiving the encryption key and the MAC address of the third terminal, the second terminal turns on the wireless connection mode, finds the third terminal through scanning based on the MAC address of the third terminal, and automatically inputs the encryption key, wherein after verification of the encryption key succeeds, the second terminal establishes the wireless communication connection in the wireless connection mode to the third terminal. selecting, , by a first terminal , a wireless connection mode in a target application, wherein the wireless connection mode is a Wi-Fi Protected Setup, WPS, based connection mode, and determining a target identifier in an identifier list of the target application; sending, , by the first terminal by using a wireless network, a wireless connection request for the wireless connection mode to a second terminal corresponding to the target identifier; establishing, , by the first terminal , a wireless communication connection in the wireless connection mode to the second terminal , when receiving, by the first terminal by using the wireless network, a connection acknowledgement response to the wireless connection request; wherein the first terminal also sends a MAC address of a third terminal being a router or a Wi-Fi transmission device and an encryption key of the third terminal in the wireless connection mode to the second terminal when receiving the connection acknowledgement response to the connection request, and when receiving the encryption key and the MAC address of the third terminal, the second terminal turns on the wireless connection mode, finds the third terminal through scanning based on the MAC address of the third terminal, and automatically inputs the encryption key, wherein after verification of the encryption key succeeds, the second terminal establishes the wireless communication connection in the wireless connection mode to the third terminal.
An exhaust gas purifying filter containing a HC purifying catalyst carried thereon, comprising: a honeycomb structure part having a partition including numerous pores formed therein, and a plurality of cells divided by the partition , forming a passage for an exhaust gas (G); and an opening sealed portion that alternately seals an inflow end surface or an outflow end surface of the exhaust gas in the cells , wherein in a cross-section of the partition sectioned along a wall thickness direction, each pore is open at a passage surface facing the cells , having an opening end of which the opening diameter (A 1 ) is 50μm or larger; the partition includes a narrow part in a region (A) positioned between a pair of virtual lines extending from opposing sides of the opening end to a passage surface positioned opposite to the opening end along the wall thickness direction, the narrow part having a pore diameter of 5μm or more and the pore diameter being a minimum in the region (A); the pore diameter (A 2 ) at the narrow part is 6% or more and less than or equal to 20% of the opening diameter (A 1 ); and the pore diameter is measured using a mercury penetration method at three points of measurement samples. a honeycomb structure part having a partition including numerous pores formed therein, and a plurality of cells divided by the partition , forming a passage for an exhaust gas (G); and an opening sealed portion that alternately seals an inflow end surface or an outflow end surface of the exhaust gas in the cells , wherein in a cross-section of the partition sectioned along a wall thickness direction, each pore is open at a passage surface facing the cells , having an opening end of which the opening diameter (A 1 ) is 50μm or larger; the partition includes a narrow part in a region (A) positioned between a pair of virtual lines extending from opposing sides of the opening end to a passage surface positioned opposite to the opening end along the wall thickness direction, the narrow part having a pore diameter of 5μm or more and the pore diameter being a minimum in the region (A); the pore diameter (A 2 ) at the narrow part is 6% or more and less than or equal to 20% of the opening diameter (A 1 ); and the pore diameter is measured using a mercury penetration method at three points of measurement samples.
A decoding method for decoding an incoming audio/video stream received by a decoder box that is connected to audio playback equipment and to video playback equipment , the decoding method being performed in the decoder box, the incoming audio/video stream transporting a reference clock signal and comprising audio samples and video samples including respective presentation time stamps, the decoding method comprising the steps of: · evaluating an audio latency introduced by an audio path and a video latency introduced by a video path; · if the audio (or respectively video) latency is greater than the video (or resp. audio) latency, testing a first condition to ensure that the time difference (Δt_a, Δt_v) between the presentation time stamp of the audio (or resp. video) samples and the reference clock signal is sufficient to enable the audio (or resp. video) samples to be decoded correctly, and if the first condition is satisfied, acting, when decoding the audio (or resp. video), to decrease the presentation time stamp of the audio (or resp. video) samples in order to advance playback of the audio (or resp. video) samples, thereby compensating at least in part the latency difference (Δlat_a, Δlat_v) between the audio (or resp. video) latency and the video (or resp. audio) latency. · evaluating an audio latency introduced by an audio path and a video latency introduced by a video path; · if the audio (or respectively video) latency is greater than the video (or resp. audio) latency, testing a first condition to ensure that the time difference (Δt_a, Δt_v) between the presentation time stamp of the audio (or resp. video) samples and the reference clock signal is sufficient to enable the audio (or resp. video) samples to be decoded correctly, and if the first condition is satisfied, acting, when decoding the audio (or resp. video), to decrease the presentation time stamp of the audio (or resp. video) samples in order to advance playback of the audio (or resp. video) samples, thereby compensating at least in part the latency difference (Δlat_a, Δlat_v) between the audio (or resp. video) latency and the video (or resp. audio) latency.
A method comprising: determining, by a wireless device , that a reference signal associated with a first control resource set, coreset, pool index overlaps in time with a downlink signal associated with a second coreset pool index; and based on the first coreset pool index and the second coreset pool index being the same, receiving the reference signal with a transmission configuration indicator, TCI, state of the downlink signal. determining, by a wireless device , that a reference signal associated with a first control resource set, coreset, pool index overlaps in time with a downlink signal associated with a second coreset pool index; and based on the first coreset pool index and the second coreset pool index being the same, receiving the reference signal with a transmission configuration indicator, TCI, state of the downlink signal.
An imitation cheese composition comprising: 6% to 15% liquid, non-interesterified/non-hydrogenated vegetable oil; 3% to 8% fractionated vegetable oil; 4% to 15% corn-derived food starch; and 2% to 12% potato-derived food starch, wherein the composition has a solid fat content to liquid fat ratio of 0.3 to 0.7 at 25°C. 6% to 15% liquid, non-interesterified/non-hydrogenated vegetable oil; 3% to 8% fractionated vegetable oil; 4% to 15% corn-derived food starch; and 2% to 12% potato-derived food starch, wherein the composition has a solid fat content to liquid fat ratio of 0.3 to 0.7 at 25°C.
A cell connection device , configured to electrically connect a first cell and a second cell in a battery, comprising: a housing comprising a conductive upper cover , a conductive lower cover , and an electrically insulated side wall ; a metal sheet electrically connecting the conductive upper cover and the conductive lower cover , and separating the housing into a first space and a second space , a first connecting terminal , electrically connecting an anode of the first cell and the conductive upper cover ; a second connecting terminal , electrically connecting a cathode of the second cell and the conductive lower cover ; and at least one pressure changing unit disposed in the first space , configured to receive a sample voltage of a sample cell in the battery, wherein the pressure changing unit comprises at least one electrochemical unit , wherein the electrochemical unit comprises a cathode , an anode , an electrolyte solution and a shell having at least one opening , wherein the cathode and the anode of the electrochemical unit are respectively electrically connected to the anode and cathode of the sample cell , wherein the inner chamber of the electrochemical unit communicates with the first space ; wherein the electrochemical unit is configured to start to work and produce at least one gas to increase the pressure within the first space when the sample voltage is equal to or greater than a predetermined value, so as to break down the electrical connection between the metal sheet and the conductive upper cover or the conductive lower cover and cut off the current of the battery. a housing comprising a conductive upper cover , a conductive lower cover , and an electrically insulated side wall ; a metal sheet electrically connecting the conductive upper cover and the conductive lower cover , and separating the housing into a first space and a second space , a first connecting terminal , electrically connecting an anode of the first cell and the conductive upper cover ; a second connecting terminal , electrically connecting a cathode of the second cell and the conductive lower cover ; and at least one pressure changing unit disposed in the first space , configured to receive a sample voltage of a sample cell in the battery, wherein the pressure changing unit comprises at least one electrochemical unit , wherein the electrochemical unit comprises a cathode , an anode , an electrolyte solution and a shell having at least one opening , wherein the cathode and the anode of the electrochemical unit are respectively electrically connected to the anode and cathode of the sample cell , wherein the inner chamber of the electrochemical unit communicates with the first space ; wherein the electrochemical unit is configured to start to work and produce at least one gas to increase the pressure within the first space when the sample voltage is equal to or greater than a predetermined value, so as to break down the electrical connection between the metal sheet and the conductive upper cover or the conductive lower cover and cut off the current of the battery.
A sensor assembly having an optical sensor for monitoring a danger area on a vehicle which is moved along a roadway bounded on both sides in each case by a roadway boundary , the optical sensor being designed to detect objects in at least one protective field and to generate a binary switching signal as a function thereof, the switching states of which are on the one hand a safety signal and on the other hand a release signal for the vehicle , characterised in that a plurality of simultaneously activated protective fields are provided, with object detection taking place in each activated protective field by means of the optical sensor , and in that a selection logic is provided in an evaluation unit of the optical sensor , in which selection logic at least one activated protective field is selected, wherein all activated protective fields are simultaneously checked for possible object interference, but the safety signal is generated only in dependence on object detection in the at least one selected protective field .
Printing apparatus comprising: - a support plane to support at least a print support (S); - at least two printing groups aligned along a longitudinal axis (Y), and each provided with at least a printing head ; - a support structure provided to support said printing groups above said support plane , - at least a moving device to move said printing groups towards/away with respect to said support plane , - at least two containment devices each associated with respective positioning means , wherein said positioning means are configured to selectively move, independently with respect to each other and in a parallel direction with respect to said longitudinal axis (Y), the respective containment device at least in a first operative position in which said containment device is positioned under said at least a printing head of one of said printing groups , and in a second inactive position in which said containment device is in a position not interfering with movement of said printing group towards or away with respect to said support plane characterized in that said containment devices are disposed on parallel and distanced lying planes and, in the second inactive position, said containment devices are superimposed to each other. - a support plane to support at least a print support (S); - at least two printing groups aligned along a longitudinal axis (Y), and each provided with at least a printing head ; - a support structure provided to support said printing groups above said support plane , - at least a moving device to move said printing groups towards/away with respect to said support plane , - at least two containment devices each associated with respective positioning means ,
An energy storage device comprising: an electrode assembly having a plurality of plates stacked on each other, wherein the plate which forms an outermost layer among the plurality of plates has a substrate and a mixture layer disposed on an inner surface of the substrate, and the electrode assembly further has a sheet member fixed to an outer surface of the substrate, characterized in that the plate which forms the outermost layer is formed such that, in a state where the sheet member is fixed to the plate, a ratio of a stress when a load is applied to the plate from a sheet member side with respect to a stress when the load is applied to the plate from a mixture layer side in a bending test is set to 0.5 to 2 inclusive. an electrode assembly having a plurality of plates stacked on each other, wherein the plate which forms an outermost layer among the plurality of plates has a substrate and a mixture layer disposed on an inner surface of the substrate, and the electrode assembly further has a sheet member fixed to an outer surface of the substrate, characterized in that the plate which forms the outermost layer is formed such that, in a state where the sheet member is fixed to the plate, a ratio of a stress when a load is applied to the plate from a sheet member side with respect to a stress when the load is applied to the plate from a mixture layer side in a bending test is set to 0.5 to 2 inclusive.
A transmitter employing a digital wavelet multi-carrier modulation, said transmitter comprising: a preamble data generator that generates preamble data and outputs said preamble data; a modulator that modulates said preamble data received from said preamble data generator , generates a plurality of subcarriers, and outputs a composite wave of time domain waves of the plurality of subcarriers; and a ramp processor that performs ramp processing by multiplying the composite wave with a ramp waveform comprising a first portion having a zero value and a second portion that ramps up from said first portion, wherein said second portion begins at a predetermined delay from a reference position of the composite wave in a manner such that the length of the composite wave is shortened. a preamble data generator that generates preamble data and outputs said preamble data; a modulator that modulates said preamble data received from said preamble data generator , generates a plurality of subcarriers, and outputs a composite wave of time domain waves of the plurality of subcarriers; and a ramp processor that performs ramp processing by multiplying the composite wave with a ramp waveform comprising a first portion having a zero value and a second portion that ramps up from said first portion, wherein said second portion begins at a predetermined delay from a reference position of the composite wave in a manner such that the length of the composite wave is shortened.