mhurhangee/ep-ind-claims huggingface dataset:
A method for capturing a video or an image by using a device, the method comprising: analyzing preview images captured by each of two cameras, wherein each of the two cameras is included in a respective one of two flaps of the device; identifying at least one capture mode from a plurality of capture modes based on an analysis of the preview images, the plurality of capture modes including wide-angle selfie, near/far field focus, 3D reconstruction, object tracking, cinematic shot, and panorama; adjusting a bend angle between the two flaps based on an error metric for the identified capture mode, wherein the error metric is a criterion indicating whether the bend angle is appropriate for the identified capture mode and wherein a corresponding error metric exists for each of the capture modes; determining a baseline distance indicating a distance between the two cameras based on the adjusted bend angle; and obtaining the video or the image in the identified capture mode at the determined baseline distance, and wherein the adjusting of the bend angle comprises adjusting the bend angle between the two flaps until the error metric is nullified. analyzing preview images captured by each of two cameras, wherein each of the two cameras is included in a respective one of two flaps of the device; identifying at least one capture mode from a plurality of capture modes based on an analysis of the preview images, the plurality of capture modes including wide-angle selfie, near/far field focus, 3D reconstruction, object tracking, cinematic shot, and panorama; adjusting a bend angle between the two flaps based on an error metric for the identified capture mode, wherein the error metric is a criterion indicating whether the bend angle is appropriate for the identified capture mode and wherein a corresponding error metric exists for each of the capture modes; determining a baseline distance indicating a distance between the two cameras based on the adjusted bend angle; and obtaining the video or the image in the identified capture mode at the determined baseline distance, and wherein the adjusting of the bend angle comprises adjusting the bend angle between the two flaps until the error metric is nullified.
Artificial tears containing a recombinant human lysozyme and a recombinant human epidermal growth factor (rhEGF), said artificial tears comprising main components and an auxiliary material, wherein the main components are a recombinant human lysozyme, an rhEGF, and sodium hyaluronate, and the contents of the recombinant human lysozyme, the rhEGF, and the sodium hyaluronate are 0.075%-0.300%, 0.002%-0.004%, and 0.10%-0.30%, respectively, based on the total mass of the novel artificial tears; wherein the auxiliary material comprises a pH stabilizer, and the pH stabilizer is a buffer consisting of disodium hydrogen phosphate and sodium dihydrogen phosphate; the auxiliary material comprises sodium chloride, and based on the total mass of the artificial tears, the content of sodium chloride is 0.70%-0.76% as measured in terms of pure solid sodium chloride; wherein the novel artificial tears have a pH of 6.4 to 6.6 and an osmolality of 285 to 310 mOsmol/kg. wherein the auxiliary material comprises a pH stabilizer, and the pH stabilizer is a buffer consisting of disodium hydrogen phosphate and sodium dihydrogen phosphate; the auxiliary material comprises sodium chloride, and based on the total mass of the artificial tears, the content of sodium chloride is 0.70%-0.76% as measured in terms of pure solid sodium chloride; wherein the novel artificial tears have a pH of 6.4 to 6.6 and an osmolality of 285 to 310 mOsmol/kg.
A driving force transmission device, provided between two members (10, 20) arranged to be relatively rotatable and transferring a rotation driving force of a drive source for a vehicle to a wheel, capable of controlling a transfer torque between the two members (10, 20), the driving force transmission device comprising: a transfer torque command value calculation section which calculates a transfer torque command value indicating a command value of the transfer torque between the two members (10, 20) based on a running state of the vehicle; and further comprising: an energy calculation section which calculates an energy value obtained by multiplying the transfer torque between the two members (10, 20) by a differential rotation rate between the two members (10, 20) at every predetermined sampling time (t); an energy accumulated value calculation section which calculates an energy accumulated value of accumulating the energy value calculated at every the predetermined sampling time (t); a map storage section which stores previously a map (Fig. 3) defining a relationship between the energy accumulated value and a correction torque; and characterised by a correction section which acquires the correction torque by applying the energy accumulated value calculated by the energy accumulated value calculation section to the map (Fig. 3) and corrects the transfer torque command value calculated by the transfer torque command value calculation section based on the acquired correction torque, wherein the energy accumulated value is calculated by accumulating the energy value continually from a start of using the driving force transmission device. a transfer torque command value calculation section which calculates a transfer torque command value indicating a command value of the transfer torque between the two members (10, 20) based on a running state of the vehicle; an energy calculation section which calculates an energy value obtained by multiplying the transfer torque between the two members (10, 20) by a differential rotation rate between the two members (10, 20) at every predetermined sampling time (t); an energy accumulated value calculation section which calculates an energy accumulated value of accumulating the energy value calculated at every the predetermined sampling time (t); a map storage section which stores previously a map (Fig. 3) defining a relationship between the energy accumulated value and a correction torque; and characterised by a correction section which acquires the correction torque by applying the energy accumulated value calculated by the energy accumulated value calculation section to the map (Fig. 3) and corrects the transfer torque command value calculated by the transfer torque command value calculation section based on the acquired correction torque, wherein the energy accumulated value is calculated by accumulating the energy value continually from a start of using the driving force transmission device.
A detection system for a two-dimensional array of samples, comprising: an electromagnetic radiation source for irradiating the two-dimensional array of samples with electromagnetic radiation, wherein the electromagnetic radiation source is configured to produce visible light or near infrared light; a reference; a beam splitter configured to split the electromagnetic radiation from the electromagnetic radiation source into a sample beam and a reference beam, wherein the sample beam is directed towards the two-dimensional array of samples and wherein the reference beam is directed towards the reference; a phase difference generator for inducing phase difference in the sample beam with respect to the reference beam; a detection surface having a plurality of sample fields, wherein the two-dimensional array of samples is disposed on the detection surface and wherein the sample fields contain the samples; and an imaging spectrometer for analyzing and imaging an interference spectrum between the sample beam and the reference beam, the imaging spectrometer being configured to discriminate between two or more spatially separated samples, wherein the detection system comprises no mechanical moving parts, and wherein the detection system further comprises a definer component disposed at least on a portion of the detection surface between the sample fields, said definer component being a component that defines a geometry and a number of sample fields characterized in that said definer component comprises a light absorbing metal. an electromagnetic radiation source for irradiating the two-dimensional array of samples with electromagnetic radiation, wherein the electromagnetic radiation source is configured to produce visible light or near infrared light; a reference; a beam splitter configured to split the electromagnetic radiation from the electromagnetic radiation source into a sample beam and a reference beam, wherein the sample beam is directed towards the two-dimensional array of samples and wherein the reference beam is directed towards the reference; a phase difference generator for inducing phase difference in the sample beam with respect to the reference beam; a detection surface having a plurality of sample fields, wherein the two-dimensional array of samples is disposed on the detection surface and wherein the sample fields contain the samples; and an imaging spectrometer for analyzing and imaging an interference spectrum between the sample beam and the reference beam, the imaging spectrometer being configured to discriminate between two or more spatially separated samples, wherein the detection system comprises no mechanical moving parts, and wherein the detection system further comprises a definer component disposed at least on a portion of the detection surface between the sample fields, said definer component being a component that defines a geometry and a number of sample fields characterized in that said definer component comprises a light absorbing metal.
Hot melt adhesive composition for detecting analytes in urine comprising a polymeric component, a plasticiser component, a resin component, a surfactant, an antioxidant component and an analyte-detecting reagent component characterized in that the hot melt adhesive is partially soluble in water and the polymeric component is selected from polyvinylpyrrolidone /vinyl acetate copolymers (PVP/VA) and ethylene and acrylic acid copolymer.
Structure element comprising a plate and a network of air pipes (2, 3) integrated into the mass of said plate, said pipes (2, 3) being, on the one hand intended to be connected to at least one pulsed air supply manifold and having, on the other hand, air outlets for diffusing the air in the room; said structure element being characterised in that the network of pipes (2, 3) comprises at least one pipe of a first type and one pipe of a second type, the pipe of the first type having a thermal conductivity higher than a thermal conductivity of the pipe of the second type.
An optical type granule sorting machine comprising transfer means for transferring granules including conforming granules, nonconforming granules, and foreign substances in such a manner that the granules form a continuous flow, inspection means for inspecting the granules transferred by the transfer means, determination means for determining whether or not the granules are to be treated as a separation target based on individual color information on the granules inspected by the inspection means, and exclusion means for excluding the separation target determined by the determination means from the continuous flow, wherein the inspection means includes an illumination section that illuminates the granules with light and an optical detection section that detects light transmitted through the granules or reflected from the granules, and the determination means includes a three-dimensional color distribution data creation section that plots wavelength components of R light, G light, and B light from the granules detected by the optical detection section on a three-dimensional color space to create three-dimensional color distribution data for a granule sample; characterized by a Mahalanobis distance interface creation section that sets an interface calculated based on a Mahalanobis distance in the three-dimensional color distribution data created by the three-dimensional distribution data creation section to partition the data into a first conforming granule cluster area containing many conforming granules and a first nonconforming granule cluster area containing many nonconforming granules and foreign substances; a Euclidean distance interface creation section that determines a position of center of gravity of the first conforming granule cluster area created by the Mahalanobis distance interface creation section and a position of center of gravity of the first nonconforming granule cluster area created by the Mahalanobis distance interface creation section, the Euclidean distance interface creation section setting an interface calculated based on a Euclidean distance at which the positions of center of gravity lie at a longest distance from each other to partition the data into a second conforming granule cluster area and a second nonconforming granule cluster area; and a threshold determination section that determines a line of intersection between the interface calculated based on the Mahalanobis distance and the interface calculated based on the Euclidean distance, to determine the line of intersection to be a determination threshold that allows determination of whether or not the granules are to be treated as a separation target.
An isolated polynucleotide encoding a chimeric antigen receptor comprising (i) an antigen binding molecule, (ii) a costimulatory domain, and (iii) an activating domain, wherein the costimulatory domain comprises an extracellular domain with a hinge, a transmembrane domain, and an intracellular domain, characterized in that the said hinge is a truncated hinge domain consisting of: (a) amino acids 123-152 of SEQ ID NO: 1, or (b) a variant of (a), having the same length but with an amino acid sequence that has at least 80%, at least 85%, at least 90%, at least 95%, at least 96%, at least 97%, at least 98%, or at least 99% identity to the amino acid sequence of (a); or (c) a variant of (a) or (b), with one to six amino acids added to or deleted from the amino acid sequence of the THD; wherein the one to six amino acids that can be added or deleted from the amino acid sequence in the THD can be at either the N-terminus, at the C-terminus, or both the N-terminus and C-terminus. (a) amino acids 123-152 of SEQ ID NO: 1, or (b) a variant of (a), having the same length but with an amino acid sequence that has at least 80%, at least 85%, at least 90%, at least 95%, at least 96%, at least 97%, at least 98%, or at least 99% identity to the amino acid sequence of (a); or (c) a variant of (a) or (b), with one to six amino acids added to or deleted from the amino acid sequence of the THD; wherein the one to six amino acids that can be added or deleted from the amino acid sequence in the THD can be at either the N-terminus, at the C-terminus, or both the N-terminus and C-terminus.
A process for the production of a moulded part comprising a rigid plastic carrier and a flexible foam plastic layer arranged thereover by injection moulding in a tool including two mould halves (1, 2) which define a cavity, wherein the rigid plastic carrier is obtained by injecting a suitable plastic melt into the cavity and then the flexible foam plastic layer is obtained by injecting a propellant-bearing plastic melt by way of two or more hot runners which are each adjoined by a respective sprue passage, characterised in that at the end of the melt front of the propellant-bearing plastic melt propellant is removed from the moulded part by the melt front of the propellant-bearing plastic melt being displaced out of the cavity into one or more overflow passages adjoining the cavity and the propellant which collects in the one or more overflow passages is discarded together with the plastic which collects in the one or more overflow passage and that associated with all hot runners with the exception of the hot runner into which injection is first effected is a respective non-return valve which ensures that the pressure in the hot runner is always so high that the propellant does not change into the gaseous state.
An absorbent article, comprising: a liquid permeable topsheet; a liquid impermeable backsheet; an absorbent core positioned at least partially intermediate the topsheet and the backsheet; and a distribution material comprising a wet-laid, three-dimensional fibrous substrate comprising at least 80% pulp fibers by weight of the wet-laid, three-dimensional fibrous substrate, wherein the wet-laid, three-dimensional fibrous substrate comprises: a continuous network region; and a plurality of discrete zones, wherein the discrete zones are dispersed throughout the continuous network region; wherein the continuous network region and the plurality of discrete zones have a common intensive property, wherein the common intensive property of the continuous network region has a first value, wherein the common intensive property of the plurality of discrete zones has a second, value, and wherein the first value is different than the second, value; characterized in that the common intensive property is basis weight. a liquid permeable topsheet; a liquid impermeable backsheet; an absorbent core positioned at least partially intermediate the topsheet and the backsheet; and a distribution material comprising a wet-laid, three-dimensional fibrous substrate comprising at least 80% pulp fibers by weight of the wet-laid, three-dimensional fibrous substrate, wherein the wet-laid, three-dimensional fibrous substrate comprises: a continuous network region; and a plurality of discrete zones, wherein the discrete zones are dispersed throughout the continuous network region; wherein the continuous network region and the plurality of discrete zones have a common intensive property, wherein the common intensive property of the continuous network region has a first value, wherein the common intensive property of the plurality of discrete zones has a second, value, and wherein the first value is different than the second, value; characterized in that the common intensive property is basis weight. a continuous network region; and a plurality of discrete zones, wherein the discrete zones are dispersed throughout the continuous network region; wherein the continuous network region and the plurality of discrete zones have a common intensive property, wherein the common intensive property of the continuous network region has a first value, wherein the common intensive property of the plurality of discrete zones has a second, value, and wherein the first value is different than the second, value; characterized in that the common intensive property is basis weight.
An industrial vehicle, wherein an axle of the industrial vehicle is pivotally supported by a body of the industrial vehicle and pivoting of the axle can be restricted, comprising: a lateral acceleration sensor (35, 36) determining lateral acceleration applied to the body when the industrial vehicle is turned; an actuator temporally restricting the pivoting of the axle while the industrial vehicle is being turned; characterized in that it comprises a vehicle speed limiter limiting traveling speed of the industrial vehicle when the industrial vehicle is turned; and a controller driving the actuator based on the lateral acceleration determined by the lateral acceleration sensor (35, 36) to temporally restrict the pivoting of the axle while the industrial vehicle is being turned and to limit the traveling speed of the industrial vehicle by the vehicle speed limiter based on the lateral acceleration when the industrial vehicle is turned, wherein in the controller, a first lateral acceleration threshold value which is used in judging whether the traveling speed of the industrial vehicle should be limited is set smaller than a second lateral acceleration threshold value which is used in judging whether the pivoting of the axle should be temporally restricted, and wherein in the controller, an upper limit value (α1) is set in deceleration in limiting the traveling speed of the industrial vehicle. a lateral acceleration sensor (35, 36) determining lateral acceleration applied to the body when the industrial vehicle is turned; an actuator temporally restricting the pivoting of the axle while the industrial vehicle is being turned; characterized in that it comprises a vehicle speed limiter limiting traveling speed of the industrial vehicle when the industrial vehicle is turned; and a controller driving the actuator based on the lateral acceleration determined by the lateral acceleration sensor (35, 36) to temporally restrict the pivoting of the axle while the industrial vehicle is being turned and to limit the traveling speed of the industrial vehicle by the vehicle speed limiter based on the lateral acceleration when the industrial vehicle is turned, wherein in the controller, a first lateral acceleration threshold value which is used in judging whether the traveling speed of the industrial vehicle should be limited is set smaller than a second lateral acceleration threshold value which is used in judging whether the pivoting of the axle should be temporally restricted, and wherein in the controller, an upper limit value (α1) is set in deceleration in limiting the traveling speed of the industrial vehicle.
A system for adjusting a measurement position of at least one scanning head (304, 304a, 304b) relative to a web (108, 206, 302) of material, the system comprising: a frame configured to support the at least one scanning head (304, 304a, 304b) as the at least one scanning head moves back and forth across at least one surface of the web (108, 206, 302) of material; and an actuator system configured to move at least a portion of the frame to alter the measurement position of the at least one scanning head relative to the web; wherein the actuator system comprises a controller configured to: receive distance measurements from the at least one scanning head, the distance measurements identifying measured distances to the web of material; and control one or more actuators that are configured to move at least the portion of the frame. a frame configured to support the at least one scanning head (304, 304a, 304b) as the at least one scanning head moves back and forth across at least one surface of the web (108, 206, 302) of material; and an actuator system configured to move at least a portion of the frame to alter the measurement position of the at least one scanning head relative to the web; wherein the actuator system comprises a controller configured to: receive distance measurements from the at least one scanning head, the distance measurements identifying measured distances to the web of material; and control one or more actuators that are configured to move at least the portion of the frame. receive distance measurements from the at least one scanning head, the distance measurements identifying measured distances to the web of material; and control one or more actuators that are configured to move at least the portion of the frame.