mhurhangee/ep-ind-claims huggingface dataset:
Method for determining a distance of an object point being present in spatial area, with the steps: - providing a device for monitoring of spatial areas with a sender emitting radiation and a receiver receiving the emitted radiation, wherein the receiver is connected to a processing unit, wherein the sender sends radiation pulses and the receiver comprises optics, wherein the spatial area to be monitored can be imaged on a semiconductor sensor with short-time integration by means of the optics, wherein the pixels of the semiconductor sensor respectively comprise a photodiode and an assigned pixel condenser; - sending a radiation pulse from the sender and activating the assigned semiconductor sensor for a first time interval of the duration t 1; - determining the complete charge Q 1 flown over the photodiode on the end of the first time interval; - sending a radiation impulse from the sender and activating the pixels on the semiconductor sensor during a second time interval with the duration t 2, wherein the second time interval is larger or smaller than the duration of the first time interval; - determining the charge Q 2 flown over the photodiode at the end of the second time interval; - lying a straight line through the both measurement values Q 1 and Q 2 to the point in time t 1 and t 2, wherein the intersection point of the straight line with the time axis gives the run-time T of the radiation pulse from the sender to the object point and back to the respective pixel; - calculating the distance of the object point in the spatial area to the receiver out of the run-time T. - providing a device for monitoring of spatial areas with a sender emitting radiation and a receiver receiving the emitted radiation, wherein the receiver is connected to a processing unit, wherein the sender sends radiation pulses and the receiver comprises optics, wherein the spatial area to be monitored can be imaged on a semiconductor sensor with short-time integration by means of the optics, wherein the pixels of the semiconductor sensor respectively comprise a photodiode and an assigned pixel condenser; - sending a radiation pulse from the sender and activating the assigned semiconductor sensor for a first time interval of the duration t 1; - determining the complete charge Q 1 flown over the photodiode on the end of the first time interval; - sending a radiation impulse from the sender and activating the pixels on the semiconductor sensor during a second time interval with the duration t 2, wherein the second time interval is larger or smaller than the duration of the first time interval; - determining the charge Q 2 flown over the photodiode at the end of the second time interval; - lying a straight line through the both measurement values Q 1 and Q 2 to the point in time t 1 and t 2, wherein the intersection point of the straight line with the time axis gives the run-time T of the radiation pulse from the sender to the object point and back to the respective pixel; - calculating the distance of the object point in the spatial area to the receiver out of the run-time T.
A hyperspectral image pickup apparatus (100, 200, 300) comprising: a hyperspectral image sensor comprising a solid-state imaging device comprising a plurality of pixels disposed two-dimensionally and configured to sense light and a dispersion optical device (113, 213) disposed to face the solid-state imaging device at an interval and configured to cause chromatic dispersion of incident light such that the incident light is separated based on wavelengths of the incident light and is incident on different positions, respectively, on a light sensing surface of the solid-state imaging device; and an image processor configured to process image data provided from the solid-state imaging device to extract hyperspectral images for the plurality of wavelengths, wherein the image processor is further configured to extract a hyperspectral image based on the RGB image provided from the solid-state imaging device and a point spread function previously calculated for each of the plurality of wavelengths, wherein the image processor is further configured to: extract edge information without dispersion through edge reconstruction of a dispersed RGB image input from the solid-state imaging device, obtain spectral information in a gradient domain based on dispersion of the extracted edge information, and reconstruct the hyperspectral image based on the spectral information of gradients. hyperspectral image sensor comprising a solid-state imaging device comprising a plurality of pixels disposed two-dimensionally and configured to sense light and a dispersion optical device (113, 213) disposed to face the solid-state imaging device at an interval and configured to cause chromatic dispersion of incident light such that the incident light is separated based on wavelengths of the incident light and is incident on different positions, respectively, on a light sensing surface of the solid-state imaging device; and an image processor configured to process image data provided from the solid-state imaging device to extract hyperspectral images for the plurality of wavelengths, wherein the image processor is further configured to extract a hyperspectral image based on the RGB image provided from the solid-state imaging device and a point spread function previously calculated for each of the plurality of wavelengths, wherein the image processor is further configured to: extract edge information without dispersion through edge reconstruction of a dispersed RGB image input from the solid-state imaging device, obtain spectral information in a gradient domain based on dispersion of the extracted edge information, and reconstruct the hyperspectral image based on the spectral information of gradients. extract edge information without dispersion through edge reconstruction of a dispersed RGB image input from the solid-state imaging device, obtain spectral information in a gradient domain based on dispersion of the extracted edge information, and reconstruct the hyperspectral image based on the spectral information of gradients.
Construction machine, with - a working drum mounted at a machine frame, - a combustion engine for driving the working drum, - a drive train between the combustion engine and the working drum, and - a clutch in the drive train, where the clutch is arranged between a drive shaft and an output shaft of the drive train, - clutch elements (34, 36) on the drive side that are capable of being engaged with clutch elements (41, 42, 43) on the output side, where - the clutch elements (34, 36, 41, 42, 43) on the drive side or on the output side are provided with several clutch part elements that are permanently engaged with one another via at least one mechanical coupling, characterized in that a braking device acting between the drive shaft and the output shaft (21, 22) is arranged at the clutch, the braking device being additionally engaged during engagement of the clutch in order to eliminate or to reduce any rotary vibrations caused by play of the mechanical coupling between the clutch part elements (34, 36), and in that the braking force couples the clutch part elements (34, 36) on the drive side or output side in such a manner that the mechanical coupling is play-free at least in the direction of the load operation. - a working drum mounted at a machine frame, - a combustion engine for driving the working drum, - a drive train between the combustion engine and the working drum, and - a clutch in the drive train, where the clutch is arranged between a drive shaft and an output shaft of the drive train, - clutch elements (34, 36) on the drive side that are capable of being engaged with clutch elements (41, 42, 43) on the output side, where - the clutch elements (34, 36, 41, 42, 43) on the drive side or on the output side are provided with several clutch part elements that are permanently engaged with one another via at least one mechanical coupling, characterized in that a braking device acting between the drive shaft and the output shaft (21, 22) is arranged at the clutch, the braking device being additionally engaged during engagement of the clutch in order to eliminate or to reduce any rotary vibrations caused by play of the mechanical coupling between the clutch part elements (34, 36), and in that the braking force couples the clutch part elements (34, 36) on the drive side or output side in such a manner that the mechanical coupling is play-free at least in the direction of the load operation.
Process for producing an article made of a composite material, comprising: - providing a semi-finished product comprising at least one layer of fibres embedded in a polymeric matrix which is not cross-linked; - positioning said semi-finished product in a first unit of a mould; - positioning a separator element above said semi-finished product such that said separator element peripherally abuts said first unit of said mould so as to define a first chamber between said separator element and said first unit, in which chamber said semi-finished product is contained, - closing said mould by means of a second unit of said mould that peripherally abuts said first unit of said mould or said separator element so as to define a second chamber between said second unit and said separator element, - depressurising said first chamber, - introducing gas into said second chamber so as to push said separator element against said semi-finished product at a first predefined pressure, - bringing the temperature inside said first chamber to a predefined value so as to cross-link said polymeric matrix and obtain said article, wherein a second pressure that is different from said first pressure is exerted on at least one limited region of said semi-finished product by means of said second unit of said mould directly contacting said separator element so as to subject different regions of said semi-finished product to differentiated pressures, characterised in that said separator element is distinct from and independent of said first unit and said second unit. - providing a semi-finished product comprising at least one layer of fibres embedded in a polymeric matrix which is not cross-linked; - positioning said semi-finished product in a first unit of a mould; - positioning a separator element above said semi-finished product such that said separator element peripherally abuts said first unit of said mould so as to define a first chamber between said separator element and said first unit, in which chamber said semi-finished product is contained, - closing said mould by means of a second unit of said mould that peripherally abuts said first unit of said mould or said separator element so as to define a second chamber between said second unit and said separator element, - depressurising said first chamber, - introducing gas into said second chamber so as to push said separator element against said semi-finished product at a first predefined pressure, - bringing the temperature inside said first chamber to a predefined value so as to cross-link said polymeric matrix and obtain said article, wherein a second pressure that is different from said first pressure is exerted on at least one limited region of said semi-finished product by means of said second unit of said mould directly contacting said separator element so as to subject different regions of said semi-finished product to differentiated pressures, characterised in that said separator element is distinct from and independent of said first unit and said second unit.
Structured emulsion polymer particles comprising: (a) from about 15 to about 25 percent by weight of a first stage polymer core which is polymerized from a monomer mixture comprising (i) from about 53 to about 60, or from about 53.5 to about 58, or from about 54 to about 56 weight percent of at least one ethylenically unsaturated C 3 -C 6 carboxylic acid monomer, (ii) from about 39 to about 46, or from about 41 to about 45.5, or from about 43 to about 45 weight percent of at least one C 1 -C 4 alkyl (meth)acrylate monomer, and (iii) at least one crosslinking monomer; (b) from about 85 to about 75 percent by weight of a second stage polymer shell which is polymerized from a monomer mixture comprising (i) from about 47 to about 55, or from about 48 to about 53, or from about 49 to about 50 weight percent of least one ethylenically unsaturated C 3 -C 6 carboxylic acid monomer, (ii) from about 52 to 44 wt.% in one aspect, from about 51 to about 46 wt.% in another aspect, and from about 50 to about 49 wt.% in a still further aspect of at least one C 1 -C 4 alkyl (meth)acrylate monomer and (iii) at least one crosslinking monomer; wherein the weight fraction of the at least one ethylenically unsaturated C 3 -C 6 carboxylic acid monomer present in said first stage monomer mixture is 3 to 20 percent greater than the weight fraction of at least one C 3 -C 6 carboxylic acid monomer present in said second stage monomer mixture; and wherein the sum total of said crosslinking monomer present in said first and said second stage monomer mixtures ranges from about 0.5 weight percent to about 1.5 weight percent, based on the weight of the total monomer present in said first and second stage monomer mixtures and the weight fraction of said crosslinking monomer present in said first stage monomer mixture to said second stage monomer mixture ranges from 15:50 to 85:50 percent. (a) from about 15 to about 25 percent by weight of a first stage polymer core which is polymerized from a monomer mixture comprising (i) from about 53 to about 60, or from about 53.5 to about 58, or from about 54 to about 56 weight percent of at least one ethylenically unsaturated C 3 -C 6 carboxylic acid monomer, (ii) from about 39 to about 46, or from about 41 to about 45.5, or from about 43 to about 45 weight percent of at least one C 1 -C 4 alkyl (meth)acrylate monomer, and (iii) at least one crosslinking monomer; (b) from about 85 to about 75 percent by weight of a second stage polymer shell which is polymerized from a monomer mixture comprising (i) from about 47 to about 55, or from about 48 to about 53, or from about 49 to about 50 weight percent of least one ethylenically unsaturated C 3 -C 6 carboxylic acid monomer, (ii) from about 52 to 44 wt.% in one aspect, from about 51 to about 46 wt.% in another aspect, and from about 50 to about 49 wt.% in a still further aspect of at least one C 1 -C 4 alkyl (meth)acrylate monomer and (iii) at least one crosslinking monomer;
A furnace for simultaneous continuous melting of two or more different glasses, said furnace having one common combustion chamber constituting one common firing system and two or more melting tanks having at least one common wall separating adjacent tanks, whereby each melting tank is intended for melting glass having a color or chemical composition different from the color or chemical composition of glass in the adjacent tank(s) in such a way that at no stage of the process and in no area of the furnace these glasses connect with each other and flow through a common part of the furnace, where a height of the common wall separating adjacent tanks is greater than the filling level of each of the adjacent tanks measured each time from the bottom of the tank to the surface of glass being molten in this tank and each of these tanks is provided with its own doghouse for feeding a batch of raw materials suitable for the glass molten in this tank and its own throat, through which the glass molten in this tank is directed to a distributor and a system of feeders, from which it is fed to product forming devices, characterised in that at least one wall separating adjacent tanks is equipped with coolers located in niches made in the edges of blocks.
A method for a network node, the method comprising: generating at least one port indication in one of a rank-nested and a non-rank-nested manner; and signalling the at least one port indication in the one of the rank-nested and the non-rank-nested manner, wherein in the rank-nested manner, the at least one port indication includes a list of port indices in which a first port index in the list indicates a port for a rank 1 channel state information, CSI, measurement, first two port indices in the list indicates ports for a rank 2 CSI measurement, one or more first k, k=1,2,...,8, port indices in the list indicates one or more ports for a rank k CSI measurement, and wherein in the non-rank-nested manner, the at least one port indication includes a plurality of port indications, each one of the plurality of port indications for each associated rank. generating at least one port indication in one of a rank-nested and a non-rank-nested manner; and signalling the at least one port indication in the one of the rank-nested and the non-rank-nested manner, wherein in the rank-nested manner, the at least one port indication includes a list of port indices in which a first port index in the list indicates a port for a rank 1 channel state information, CSI, measurement, first two port indices in the list indicates ports for a rank 2 CSI measurement, one or more first k, k=1,2,...,8, port indices in the list indicates one or more ports for a rank k CSI measurement, and wherein in the non-rank-nested manner, the at least one port indication includes a plurality of port indications, each one of the plurality of port indications for each associated rank.
A method for processing video signals, comprising: deriving an inter-view motion vector of a current texture block using one of inter-view motion vector candidates of the current texture block based on priority, the priority indicating an order of detecting a block coded according to inter-view inter-prediction; and performing inter-view inter-prediction for the current texture block using the derived inter-view motion vector of the current texture block, the inter-view motion vector candidates include at least one of an inter-view motion vector of a spatial neighboring block, and an inter-view motion vector of a temporal neighboring block, the spatial neighboring block includes a left neighboring block and an upper neighboring block, the temporal neighboring block includes a collocated block, characterized in that, the inter-view motion vector of the temporal neighboring block has a higher priority than the inter-view motion vector of the spatial neighboring block, the inter-view motion vector candidates further include a disparity vector, and the inter-view motion vector of the spatial neighboring block has a higher priority than the disparity vector. deriving an inter-view motion vector of a current texture block using one of inter-view motion vector candidates of the current texture block based on priority, the priority indicating an order of detecting a block coded according to inter-view inter-prediction; and performing inter-view inter-prediction for the current texture block using the derived inter-view motion vector of the current texture block, the inter-view motion vector candidates include at least one of an inter-view motion vector of a spatial neighboring block, and an inter-view motion vector of a temporal neighboring block, the spatial neighboring block includes a left neighboring block and an upper neighboring block, the temporal neighboring block includes a collocated block, characterized in that, the inter-view motion vector of the temporal neighboring block has a higher priority than the inter-view motion vector of the spatial neighboring block, the inter-view motion vector candidates further include a disparity vector, and the inter-view motion vector of the spatial neighboring block has a higher priority than the disparity vector.
A mounting mat for an exhaust gas treatment device characterized in that it comprises: inorganic fibers; organic binder; antioxidant for retarding the oxidation of the organic binder; and intumescent material, wherein said antioxidant is 0.1% to 10% of the total weight of said mounting mat, and said organic binder is present in an amount greater than 0 to 20% of the total weight of said mounting mat. inorganic fibers; organic binder; antioxidant for retarding the oxidation of the organic binder; and intumescent material, wherein said antioxidant is 0.1% to 10% of the total weight of said mounting mat, and said organic binder is present in an amount greater than 0 to 20% of the total weight of said mounting mat.
A method of predicting whether a wet AMD patient has an increased likelihood of benefiting from treatment with a high-affinity anti-VEGF antibody, comprising screening a sample isolated from said patient for a genomic polymorphism in the matrix metalloprotease 25 gene allele corresponding to rs1064875, wherein the patient has an increased likelihood of benefiting from said treatment if the corresponding genotype comprises AA or AG.
A meter electronics for using a density measurement of a fluid to verify a vapor pressure, the meter electronics comprising: a processing system communicatively coupled to a meter assembly having the fluid, the processing system being configured to: determine a vapor pressure of the fluid by detecting a phase change of the fluid in the meter assembly; measure a density of the fluid based on a resonant frequency of the meter assembly; derive a vapor pressure from the measured density; and compare the determined vapor pressure with the derived vapor pressure. determine a vapor pressure of the fluid by detecting a phase change of the fluid in the meter assembly; measure a density of the fluid based on a resonant frequency of the meter assembly; derive a vapor pressure from the measured density; and compare the determined vapor pressure with the derived vapor pressure.
An air pollution filtering breathing mask for filtering air before it is breathed in by a subject, comprising: a mask body for covering the nose and/or mouth of a user thereby defining a mask chamber; a filter; an air pump for ventilating the mask chamber; and an air heat exchanger for transferring heat from air exhaled from the mask chamber to air drawn in to the mask chamber, wherein the air heat exchanger comprises a first set of air flow channels in series with the filter for providing filtered outside air to the mask volume and a different second set of air flow channels for expelling air from the mask volume to the outside and whereby mixing between the two air flows is prevented, and a thermal coupling between the first and second sets of air flow channels, wherein the air heat exchanger comprises a mesh of thermally conductive walls between which the air flow channels are defined. a mask body for covering the nose and/or mouth of a user thereby defining a mask chamber; a filter; an air pump for ventilating the mask chamber; and an air heat exchanger for transferring heat from air exhaled from the mask chamber to air drawn in to the mask chamber, wherein the air heat exchanger comprises a first set of air flow channels in series with the filter for providing filtered outside air to the mask volume and a different second set of air flow channels for expelling air from the mask volume to the outside and whereby mixing between the two air flows is prevented, and a thermal coupling between the first and second sets of air flow channels, wherein the air heat exchanger comprises a mesh of thermally conductive walls between which the air flow channels are defined.