mhurhangee/patent-ind-claim-en huggingface dataset:
An image projection system, comprising: a curved projection screen , wherein the projection screen forms a full annulus and is translucent or transparent, wherein the curved projection screen is configured to completely surround a viewer ; a plurality of lenticules disposed on or in the projection screen ; a projector configured to project a plurality of images onto the projection screen , wherein the plurality of images comprise a plurality of views of a scene, wherein the projector is configured to simultaneously project the plurality of images to generate a three-dimensional display of the scene, wherein the projector is configured to project the plurality of images from a position outside of an enclosed space formed by the projection screen , and wherein the projector is above or below the curved projection screen ; a conical reflector configured to reflect the plurality of images from the projector onto the projection screen , wherein the conical reflector is positioned at a location outside of the enclosed space formed by the projection screen , wherein the conical reflector forms a full annulus around the viewer , wherein the projection screen , the plurality of lenticles and the projector are stationary relative to an environment of the image projection system, wherein the image projection system is configured to display multiple three-dimensional displays of the scene in sequence to animate the scene, the plurality of images comprising a first plurality of images corresponding to a first frame of the scene and a second plurality of images corresponding to a second frame of the scene that is subsequent to the first frame, the projector being configured to project the second plurality of images after projecting the first plurality of images to simulate movement within the scene. a curved projection screen , wherein the projection screen forms a full annulus and is translucent or transparent, wherein the curved projection screen is configured to completely surround a viewer ; a plurality of lenticules disposed on or in the projection screen ; a projector configured to project a plurality of images onto the projection screen , wherein the plurality of images comprise a plurality of views of a scene, wherein the projector is configured to simultaneously project the plurality of images to generate a three-dimensional display of the scene, wherein the projector is configured to project the plurality of images from a position outside of an enclosed space formed by the projection screen , and wherein the projector is above or below the curved projection screen ; a conical reflector configured to reflect the plurality of images from the projector onto the projection screen , wherein the conical reflector is positioned at a location outside of the enclosed space formed by the projection screen , wherein the conical reflector forms a full annulus around the viewer , wherein the projection screen , the plurality of lenticles and the projector are stationary relative to an environment of the image projection system,
An optical element comprising: an optical crystal ; and an antireflection film coating a surface of the optical crystal ; wherein the antireflection film contains an organic compound which contains, as a structural unit, at least one compound selected from the group consisting of: a compound containing a cyclic structure to which a fluorine atom is bound; and a compound containing a cyclic olefin structure; wherein the optical crystal is an organic nonlinear optical crystal; characterised in that the organic nonlinear optical crystal is selected from a 4-dimethylamino-N-methyl-4-stilbazolium tosylate (DAST) crystal, a 4-dimethylamino-N-methyl-4-stilbazolium-p-chlorobenzene sulfonate (DASC) crystal, a 4-N,N-dimethylamino-4'-N'-methylstilbazolium-2,4,6-trimethylbenzenesulfonate (DSTMS) crystal, a 2-(3-(4-hydroxystyryl)-5,5-dimethylcyclohex-2-enylidene)malononitrile (OH1) crystal, a bis(4-dimethylamino-N-methyl-4-stilbazolium)terephthalate (BDAS-TP) crystal, a 4-dimethylamino-N-methyl-4-stilbazolium hydrogen terephthalate (DAS-HTP) crystal, a N-benzyl2-methyl-4-nitroaniline (BNA) crystal, a (2-(4-hydroxy-3-methoxystyryl)-1-methylquinolinium-2,4,6-trimethylbenzenesulfonate (HMQ-TMS) crystal, and a merocyanine-p-toluenesulfonic acid (MC-PTS) crystal; and an absolute value of a difference in linear expansion coefficient between the antireflection film and the optical crystal is 130 ppm/K or less. an optical crystal ; and an antireflection film coating a surface of the optical crystal ; wherein the antireflection film contains an organic compound which contains, as a structural unit, at least one compound selected from the group consisting of: a compound containing a cyclic structure to which a fluorine atom is bound; and a compound containing a cyclic olefin structure; wherein the optical crystal is an organic nonlinear optical crystal; characterised in that the organic nonlinear optical crystal is selected from a 4-dimethylamino-N-methyl-4-stilbazolium tosylate (DAST) crystal, a 4-dimethylamino-N-methyl-4-stilbazolium-p-chlorobenzene sulfonate (DASC) crystal, a 4-N,N-dimethylamino-4'-N'-methylstilbazolium-2,4,6-trimethylbenzenesulfonate (DSTMS) crystal, a 2-(3-(4-hydroxystyryl)-5,5-dimethylcyclohex-2-enylidene)malononitrile (OH1) crystal, a bis(4-dimethylamino-N-methyl-4-stilbazolium)terephthalate (BDAS-TP) crystal, a 4-dimethylamino-N-methyl-4-stilbazolium hydrogen terephthalate (DAS-HTP) crystal, a N-benzyl2-methyl-4-nitroaniline (BNA) crystal, a (2-(4-hydroxy-3-methoxystyryl)-1-methylquinolinium-2,4,6-trimethylbenzenesulfonate (HMQ-TMS) crystal, and a merocyanine-p-toluenesulfonic acid (MC-PTS) crystal; and an absolute value of a difference in linear expansion coefficient between the antireflection film and the optical crystal is 130 ppm/K or less.
A kit, comprising: a flow cell , including: a substrate ; and first and second capture primers attached to the substrate ; and a genotyping probe fluid, including: a liquid carrier; and a genotyping oligonucleotide in the liquid carrier, the genotyping oligonucleotide including: a first primer sequence ; a probe sequence representative of a target genotyping locus ; a restriction endonuclease site ; and a second primer sequence that is at least partially complementary to the second capture primer . a flow cell , including: a substrate ; and first and second capture primers attached to the substrate ; and a substrate ; and first and second capture primers attached to the substrate ; and a genotyping probe fluid, including: a liquid carrier; and a genotyping oligonucleotide in the liquid carrier, the genotyping oligonucleotide including: a first primer sequence ; a probe sequence representative of a target genotyping locus ; a restriction endonuclease site ; and a second primer sequence that is at least partially complementary to the second capture primer . a liquid carrier; and a genotyping oligonucleotide in the liquid carrier, the genotyping oligonucleotide including: a first primer sequence ; a probe sequence representative of a target genotyping locus ; a restriction endonuclease site ; and a second primer sequence that is at least partially complementary to the second capture primer . a first primer sequence ; a probe sequence representative of a target genotyping locus ; a restriction endonuclease site ; and a second primer sequence that is at least partially complementary to the second capture primer .
Belt frame for a vehicle seat or a vehicle seat bench, wherein the belt frame comprises a vertical support (2 - 4) and a horizontal cross member , wherein the cross member is arranged on the vertical support (2 - 4), wherein on an attachment element of the cross member a component of a passenger restraint system in an assembled state of the vehicle seat is fastened to the belt frame , characterised in that the belt frame comprises a safety element , wherein the safety element is provided along a longitudinal axis of the cross member on the cross member , wherein the safety element together with the cross member surrounds the vertical support (2 - 4).
An isolated agonistic antibody that specifically binds to human glucocorticoid-induced TNFR-related protein (GITR) comprising a heavy chain variable region (VH) comprising the amino acid sequence of SEQ ID NO: 206 and comprising a light chain variable region (VL) comprising the amino acid sequence of SEQ ID NO: 208, wherein the antibody further comprises a heavy chain constant region.
Solar cell or solar cell module comprising at least one layer on or in the front radiation-receiving side of the solar cell or solar cell module comprising at least one effect pigment consisting of a transparent or semi-transparent flake-form substrate coated with one or more layers of transparent or semi-transparent materials and optionally with a post coating, characterized in that the effect pigment has a reflection level of 1 to 40% for radiation in the range of 260 to 1200 nm, and the amount of the effect pigment is in the range of 1 - 25 g/m 2 .
Gas flow reversing element for the use of a gas supply under excess pressure, in particular oxygen, for selectively generating a gas flow from or to a line connector which can in particular be connected to an airway of a patient, said gas flow reversing element being designed as a main piece with a branching piece , the main piece connecting a pressure connector , for connection to the gas supply , to at least one closable outlet opening via a mixing channel , and the branching piece connecting the main piece to the line connector , characterized in that the mixing channel and a nozzle , particularly an injector nozzle, are configured and arranged in the main piece in such a way that, by a gas flow flowing from the pressure connector through the nozzle and through the mixing channel to the outlet opening , an underpressure is generated at the line connector , whereas in the main piece , with the outlet opening opened, a gas flow can also be generated in the branching piece in the direction of the outlet opening , specifically with a volumetric flow rate which, at an excess pressure of 1 to 5 bar above atmospheric pressure at the pressure connector , is at least 8 liters per minute; wherein, with the outlet opening closed an overpressure is generated at the line connector and a gas flow in direction to the patient is achievable.
A vehicle control system that controls a platoon travel in which a plurality of vehicles travel in a platoon, wherein the plurality of vehicles include a leading vehicle (V0) that is an autonomous driving vehicle (V) and a following vehicle that follows immediately after the leading vehicle (V0) or follows the leading vehicle (V0) via one or more vehicles (V), when a parking frame exists in a range of detection performed by an external sensor mounted on the leading vehicle (V0) and configured to detect a surrounding environment of the leading vehicle (V0), the following vehicle (V) is permitted to park in the parking frame and when parking is completed for the following vehicle (V), the leading vehicle (V0) autonomously parks in the parking frame, and when a parking frame does not exist in the range of detection performed by the external sensor , when the leading vehicle (V0) arrives at a destination, the leading vehicle (V0) and following vehicle (V0) stop and the leading vehicle (V0) is moved to a position where a target parking frame for the following vehicle (V) is included in the range of detection performed by the external sensor . wherein the plurality of vehicles include a leading vehicle (V0) that is an autonomous driving vehicle (V) and a following vehicle that follows immediately after the leading vehicle (V0) or follows the leading vehicle (V0) via one or more vehicles (V), when a parking frame exists in a range of detection performed by an external sensor mounted on the leading vehicle (V0) and configured to detect a surrounding environment of the leading vehicle (V0), the following vehicle (V) is permitted to park in the parking frame and when parking is completed for the following vehicle (V), the leading vehicle (V0) autonomously parks in the parking frame, and when a parking frame does not exist in the range of detection performed by the external sensor , when the leading vehicle (V0) arrives at a destination, the leading vehicle (V0) and following vehicle (V0) stop and the leading vehicle (V0) is moved to a position where a target parking frame for the following vehicle (V) is included in the range of detection performed by the external sensor .
A double line pet leash, the pet leash comprising a body and a cavity located in the body , wherein the body is connected to a first assembly and a second assembly , the first assembly is fixedly connected to the body and wherein the first assembly comprises a first shaft integrally formed with the body , wherein the first shaft and the body cooperatively form a boundary of the cavity , and the second assembly is located within the cavity and is rotatably connected to the body and wherein the second assembly comprises a second shaft located in the cavity and fixedly connected to the body at both ends, the second assembly further comprises a roller sleeved on the second shaft and rotatable relative to the second shaft, and a second leash line is pressed on a surface of the roller, the pet leash further comprising an open-close assembly connected to the body and capable of opening or closing the cavity , a first leash line pressed on a surface of the first assembly and the second leash line pressed on a surface of the second assembly , wherein the first leash line is pressed on a surface at one end of the first shaft close to the cavity ; and wherein the open-close assembly comprises a knob and a torsion bar fixedly connected to each other, the torsion bar is rotatably connected to the body , the knob is rotatable to allow the torsion bar to pass through the first shaft and be pressed on an inner surface of the body .
A swing bed absorption apparatus, comprising: a bed comprising: a bed housing comprising: an outer surface ; an interior chamber ; a metal foam contained in the bed housing; a flared interior passageway fluidly connecting the interior chamber to an area located outside of the bed, the flared interior passageway comprising: an opening in the outer surface; a chamber opening at the interior chamber, wherein, the opening and the chamber opening together allow for filling the metal foam with amine based sorbent beads or for emptying amine based sorbent beads from the metal foam; a first portion located at the opening , the first portion being fluidly connected to the area located outside the bed through the opening; and a flared portion located at the chamber opening, the flared portion being fluidly connected to the interior chamber through the chamber opening, wherein the flared portion connects to the interior chamber at an obtuse angle. a bed housing comprising: an outer surface ; an interior chamber ; a metal foam contained in the bed housing; an outer surface ; an interior chamber ; a metal foam contained in the bed housing; a flared interior passageway fluidly connecting the interior chamber to an area located outside of the bed, the flared interior passageway comprising: an opening in the outer surface; a chamber opening at the interior chamber, wherein, the opening and the chamber opening together allow for filling the metal foam with amine based sorbent beads or for emptying amine based sorbent beads from the metal foam; a first portion located at the opening , the first portion being fluidly connected to the area located outside the bed through the opening; and a flared portion located at the chamber opening, the flared portion being fluidly connected to the interior chamber through the chamber opening, wherein the flared portion connects to the interior chamber at an obtuse angle. an opening in the outer surface; a chamber opening at the interior chamber, wherein, the opening and the chamber opening together allow for filling the metal foam with amine based sorbent beads or for emptying amine based sorbent beads from the metal foam; a first portion located at the opening , the first portion being fluidly connected to the area located outside the bed through the opening; and a flared portion located at the chamber opening, the flared portion being fluidly connected to the interior chamber through the chamber opening, wherein the flared portion connects to the interior chamber at an obtuse angle.
An assembly of components for a gas turbine engine, the assembly comprising; one or two components to be fastened together and a bush having a neck portion inserted into an aperture of the one or both of the two components to be fastened together, the bush comprising a radially extending shoulder portion having a rear face adjacent the neck portion an opposite front face and a radially outer face extending between the rear face and the front face and characterised by one or more ventilation slots provided in the rear face , the ventilation slots extending from a junction between the rear face and the neck portion whereby, in use, to provide an escape route for air caught between the bush and one of the components.
A physiological communication receiver that can be removably secured to a subject's skin, the receiver comprising: a housing ; a power source secured within the housing ; a processing unit electrically coupled to the power source and secured within the housing, wherein the processing unit is configured to detect:a conductively transmitted signal having a first frequency, wherein the conductively transmitted signal comprises encoded data associated with an ionic emission device configured to encode the data in a first current flow produced by ionic emission and conducted through body tissue of a subject and a physiological signal having a second frequency, wherein the physiological signal comprises parameter data encoded in a second current flow associated with the physiology of the subject, and wherein the first frequency is higher than the second frequency andat least two electrodes (1310, 2277, 811, 911, E1) electrically coupled to the processing unit and secured to the perimeter of the housing to contact the subject's skin, wherein the at least two electrodes are configured to detect a differential voltage therebetween corresponding to the first current flow conducted through the body tissue of the subject intervening the at least two electrodes. a housing ; a power source secured within the housing ; a processing unit electrically coupled to the power source and secured within the housing, wherein the processing unit is configured to detect:a conductively transmitted signal having a first frequency, wherein the conductively transmitted signal comprises encoded data associated with an ionic emission device configured to encode the data in a first current flow produced by ionic emission and conducted through body tissue of a subject and a physiological signal having a second frequency, wherein the physiological signal comprises parameter data encoded in a second current flow associated with the physiology of the subject, and wherein the first frequency is higher than the second frequency andat least two electrodes (1310, 2277, 811, 911, E1) electrically coupled to the processing unit and secured to the perimeter of the housing to contact the subject's skin, wherein the at least two electrodes are configured to detect a differential voltage therebetween corresponding to the first current flow conducted through the body tissue of the subject intervening the at least two electrodes.
A seat device comprising: a seatback having a backrest surface (S); a massage airbag that presses the back of an occupant through the backrest surface (S) by performing expanding operation and contracting operation in the interior of the seatback ; an air supply-discharge device that selectively supplies air to and discharges internal air from the airbag based on an internal pressure of the airbag; a displacement device that displaces the backrest surface (S); a timer that measures an air discharge time (T) of the internal air needed for the contracting operation of the airbag; and a load regulating device that controls operation of the displacement device such that a measured value (Tα) of the air discharge time (T) approaches a target value (T0) of the air discharge time (T) in correspondence with a change of an occupant load (F) acting on the backrest surface (S) due to displacement of the backrest surface (S), characterized in that the displacement device includes a seat supporting device that displaces the backrest surface (S) in a front-rear direction, and in that if the measured value (Tα) of the air discharge time (T) is greater than the target value (T0) of the air discharge time, the load regulating device controls operation of the seat supporting device to displace the backrest surface (S) forward. a seatback having a backrest surface (S); a massage airbag that presses the back of an occupant through the backrest surface (S) by performing expanding operation and contracting operation in the interior of the seatback ; an air supply-discharge device that selectively supplies air to and discharges internal air from the airbag based on an internal pressure of the airbag; a displacement device that displaces the backrest surface (S); a timer that measures an air discharge time (T) of the internal air needed for the contracting operation of the airbag; and a load regulating device that controls operation of the displacement device such that a measured value (Tα) of the air discharge time (T) approaches a target value (T0) of the air discharge time (T) in correspondence with a change of an occupant load (F) acting on the backrest surface (S) due to displacement of the backrest surface (S), characterized in that the displacement device includes a seat supporting device that displaces the backrest surface (S) in a front-rear direction, and in that if the measured value (Tα) of the air discharge time (T) is greater than the target value (T0) of the air discharge time, the load regulating device controls operation of the seat supporting device to displace the backrest surface (S) forward.