mhurhangee/ep-ind-claims huggingface dataset:
Exchanger element (1; 101; 201; 301, 321, 341), for a heat exchanger intended to transfer heat from at least one primary fluid, called calorigenic fluid, to at least one secondary fluid, called refrigerant, the exchanger element (1; 101; 201; 301) comprising: - at least one plate (2; 102; 202; 302, 322, 342) that is solid; - ribs (4; 104; 204; 304.1, 304.2, 324.1, 324.2, 344.1, 344.2) that protrude on at least one face of the plate (2; 102; 202; 302), each rib (4; 104; 204; 304.1) forming at least one portion of a wall of a respective channel (6; 106; 206; 306, 326, 346) suitable for the flow of calorigenic fluid or refrigerant; and - closing bars (8.1, 8.3; 108.1, 108.2, 108.3, 108.4; 208.1, 208.3, 208.4; 308) extending along edges of the plate (2; 102; 202; 302) in such a way as to plug at least a portion of the channels (6; 106; 206; 306); - the exchanger element being characterised in that the plate (2; 102; 202; 302), at least a portion of the ribs (4; 104; 204; 304.1, 304.2, 324.1, 324.2, 344.1, 344.2) and at least a portion of the closing bars (8.1, 8.3; 108.1, 108.2, 108.3, 108.4; 208.1, 208.3, 208.4; 308) form a single piece, - first ribs extend, protruding on at least one first face of the plate, in parallel in such a way as to form walls of parallel channels called exchange channels, ch aracterised in that second ribs (105; 205) are arranged protruding on the first face of the plate (102; 202) in such a way as to form walls of second channels called distribution channels (107; 207) in such a way that the distribution channels (107; 207) extend transversely to the exchange channels (106; 206). - at least one plate (2; 102; 202; 302, 322, 342) that is solid; - ribs (4; 104; 204; 304.1, 304.2, 324.1, 324.2, 344.1, 344.2) that protrude on at least one face of the plate (2; 102; 202; 302), each rib (4; 104; 204; 304.1) forming at least one portion of a wall of a respective channel (6; 106; 206; 306, 326, 346) suitable for the flow of calorigenic fluid or refrigerant; and - closing bars (8.1, 8.3; 108.1, 108.2, 108.3, 108.4; 208.1, 208.3, 208.4; 308) extending along edges of the plate (2; 102; 202; 302) in such a way as to plug at least a portion of the channels (6; 106; 206; 306); - the exchanger element being characterised in that the plate (2; 102; 202; 302), at least a portion of the ribs (4; 104; 204; 304.1, 304.2, 324.1, 324.2, 344.1, 344.2) and at least a portion of the closing bars (8.1, 8.3; 108.1, 108.2, 108.3, 108.4; 208.1, 208.3, 208.4; 308) form a single piece, - first ribs extend, protruding on at least one first face of the plate, in parallel in such a way as to form walls of parallel channels called exchange channels, ch
Method for coding a pixel block comprising: - determining a prediction block for said pixel block from a motion vector for which each component comprises an integer part and a fractional part; - calculating a residue between said pixel block and said prediction block; - coding said residue, said coding method being characterized in that the determination of said prediction block comprises: - motion compensating said pixel block with an intermediate motion vector whose components are the integer parts of the components of said motion vector; - determining an intermediate prediction block of size strictly greater than the size of said pixel block by adding at least one line of adjacent pixels and at least one column of adjacent pixels in the direction of motion to said motion compensated pixel block, said direction of motion being given by said motion vector; - transforming into a frequency domain said intermediate prediction block into a first block transformed with a first transform; and - transforming said first transformed block into a second block transformed with a second transform inverse of said first transform whose basis functions are shifted by the fractional parts of the components of said motion vector, said prediction block being obtained by deleting said at least one line of adjacent pixels and said at least one column of adjacent pixels from said second transformed block. - determining a prediction block for said pixel block from a motion vector for which each component comprises an integer part and a fractional part; - calculating a residue between said pixel block and said prediction block; - coding said residue, - motion compensating said pixel block with an intermediate motion vector whose components are the integer parts of the components of said motion vector; - determining an intermediate prediction block of size strictly greater than the size of said pixel block by adding at least one line of adjacent pixels and at least one column of adjacent pixels in the direction of motion to said motion compensated pixel block, said direction of motion being given by said motion vector; - transforming into a frequency domain said intermediate prediction block into a first block transformed with a first transform; and - transforming said first transformed block into a second block transformed with a second transform inverse of said first transform whose basis functions are shifted by the fractional parts of the components of said motion vector, said prediction block being obtained by deleting said at least one line of adjacent pixels and said at least one column of adjacent pixels from said second transformed block.
A medical balloon (10, 40) for endoluminal location within a patient, the balloon including a first balloon layer (30, 46) made of impervious polymeric material, and a second balloon layer (32, 48) integral with the first balloon layer, which second balloon layer includes a combination of radiopaque and/or echogenic material and polymeric material, characterised in that the second balloon layer including between 60 and 80% by weight of radiopaque and/or echogenic material, whereby the medical balloon is echogenic and/or radiopaque.
An annulus filler for mounting to a rotor disc of a gas turbine engine and bridging the gap between two adjacent blades attached to the rotor disc, the annulus filler being substantially entirely formed from a polymer matrix composite material, and the annulus filler having: an outer lid which defines an airflow surface for air being drawn through the engine in an axial airflow direction, and a support structure which is connectable to the rotor disc to support the rear of the lid on the rotor disc, the support structure having two support walls extending from opposing lateral sides of the lid to an attachment strap for receiving a hook on the rotor disc, the attachment strap bridging the support walls, and, in use under centrifugal loads, the support walls resiliently deforming to allow outward radial movement of the lid; wherein each support wall has a concave rear edge which extends rearwardly and radially outwardly from the rear of the attachment strap towards a trailing edge of the lid, each rear edge having a first curved section proximal the attachment strap, a second curved section proximal the trailing edge and a substantially straight section therebetween. an outer lid which defines an airflow surface for air being drawn through the engine in an axial airflow direction, and a support structure which is connectable to the rotor disc to support the rear of the lid on the rotor disc, the support structure having two support walls extending from opposing lateral sides of the lid to an attachment strap for receiving a hook on the rotor disc, the attachment strap bridging the support walls, and, in use under centrifugal loads, the support walls resiliently deforming to allow outward radial movement of the lid;
A water-based electrodeposition dispersion for forming an insulating film, comprising: polymer particles; an organic solvent; a basic compound; and water, wherein the polymer particles are made of polyamide-imide, the basic compound is a nitrogen-containing compound in which a HSP distance from water is 35 or greater, the basic compound is any one of primary alkylamines, secondary alkylamines, tripropylamine, tributylamine, triamylamine and trihexylamine, the HSP distance (Ra) refers to an inter-vector distance or a distance between the coordinates given by the HSP values of two substances, and is calculated through Formula, HSP Distance = 4 × dD 1 − dD 2 2 + dP 1 − dP 2 2 + dH 1 − dH 2 2 1 / 2 in Formula, dD 1, dP 1, and dH 1 are an HSP value of one of two substances, and dD 2, dP 2, and dH 2 are an HSP value of the other substance, and the nitrogen-containing compound in which the HSP distance from water is 35 or greater refers to a nitrogen-containing compound in which the value of the HSP distance calculated by substituting the HSP value (dD=15.5, dP=16, dH=42.3) of water and the HSP value of the nitrogen-containing compound into Formula is 35 or greater. polymer particles; an organic solvent; a basic compound; and water, wherein the polymer particles are made of polyamide-imide, the basic compound is a nitrogen-containing compound in which a HSP distance from water is 35 or greater, the basic compound is any one of primary alkylamines, secondary alkylamines, tripropylamine, tributylamine, triamylamine and trihexylamine, the HSP distance (Ra) refers to an inter-vector distance or a distance between the coordinates given by the HSP values of two substances, and is calculated through Formula, HSP Distance = 4 × dD 1 − dD 2 2 + dP 1 − dP 2 2 + dH 1 − dH 2 2 1 / 2 in Formula, dD 1, dP 1, and dH 1 are an HSP value of one of two substances, and dD 2, dP 2, and dH 2 are an HSP value of the other substance, and the nitrogen-containing compound in which the HSP distance from water is 35 or greater refers to a nitrogen-containing compound in which the value of the HSP distance calculated by substituting the HSP value (dD=15.5, dP=16, dH=42.3) of water and the HSP value of the nitrogen-containing compound into Formula is 35 or greater. in Formula, dD 1, dP 1, and dH 1 are an HSP value of one of two substances, and dD 2, dP 2, and dH 2 are an HSP value of the other substance, and the nitrogen-containing compound in which the HSP distance from water is 35 or greater refers to a nitrogen-containing compound in which the value of the HSP distance calculated by substituting the HSP value (dD=15.5, dP=16, dH=42.3) of water and the HSP value of the nitrogen-containing compound into Formula is 35 or greater.
Mobile remote detection device for methane gas accumulations, which is provided for assembly on an aircraft, comprising an emitter device with a light source to generate light, the wavelength of which is tuned with the spectral signature of methane, wherein the light is directable onto a measuring field and wherein the light source provides light pulses of a first wavelength corresponding to a methane absorption line and reference light pulses of a second wavelength outside an absorption line, a detector device for the detection of backscattered light, and an evaluation device, wherein the first wavelength generated by the light source lies between 3200 nm and 3300 nm, and wherein the light source comprises an optical parametric oscillator with injection seeding, which is associated with a single pump laser being operatable in a double-pulse mode and operated in injection seeding mode, the interval between the absorption light pulse and the reference light pulse being less than 300 μs, and wherein the optical parametric oscillator is coupled to an optical emitter system by means of a fibre optic light guide.
A solid-state image pickup device comprising: a plurality of normal pixels that generate a pixel signal of an image; and a plurality of phase-difference detection pixels, wherein each of the phase-difference detection pixels generates a pixel signal used in calculation of a phase-difference signal for controlling an image-surface phase difference AF function, the plurality of normal pixels and the plurality of phase-difference detection pixels being arranged in a mixed manner, wherein a shared on-chip lens for condensing incident light to a photoelectric converter that generates a pixel signal used in calculation of the phase-difference signal is formed for every plurality of adjacent phase-difference detection pixels, an individual on-chip lens for condensing incident light to a photoelectric converter that generates a pixel signal of the image is formed for each of the normal pixels, characterized in that the individual on-chip lenses are approximately rectangular and the shared on-chip lens is approximately hexagonal, the individual on-chip lenses are tessellated having no gaps between the individual on-chip lenses in adjacent normal pixels, and no gaps are formed between the individual on-chip lenses of the normal pixels and the shared on-chip lens of the phase-difference detection pixels, and in that the shared on-chip lens is formed adjacent six of the individual on-chip lenses in a plan view. a plurality of normal pixels that generate a pixel signal of an image; and a plurality of phase-difference detection pixels, wherein each of the phase-difference detection pixels generates a pixel signal used in calculation of a phase-difference signal for controlling an image-surface phase difference AF function, the plurality of normal pixels and the plurality of phase-difference detection pixels being arranged in a mixed manner, wherein a shared on-chip lens for condensing incident light to a photoelectric converter that generates a pixel signal used in calculation of the phase-difference signal is formed for every plurality of adjacent phase-difference detection pixels, an individual on-chip lens for condensing incident light to a photoelectric converter that generates a pixel signal of the image is formed for each of the normal pixels, characterized in that the individual on-chip lenses are approximately rectangular and the shared on-chip lens is approximately hexagonal, the individual on-chip lenses are tessellated having no gaps between the individual on-chip lenses in adjacent normal pixels, and no gaps are formed between the individual on-chip lenses of the normal pixels and the shared on-chip lens of the phase-difference detection pixels, and in that the shared on-chip lens is formed adjacent six of the individual on-chip lenses in a plan view.
Aflatoxin VHH antibody immunoabsorbent, characterized in that the immunoabsorbent contains solid phase carrier and aflatoxin VHH antibody coupled with the solid phase carrier, wherein the aflatoxin VHH antibody is aflatoxin B1 VHH antibody 2014AFB-G15, amino acid sequence thereof being as depicted in SEQ ID NO:7 and coding sequence thereof being as depicted in SEQ ID NO:8.
Vehicle (2a, 2b, 2c) for passenger transport, comprising a first vehicle body, a second vehicle body connected to the first vehicle body, a multipurpose area as well as an intercar gangway arranged between the first and the second vehicle body (4a, 4b), wherein the multipurpose area is arranged at least partially within the intercar gangway, characterised in that the multipurpose area has at least one wheelchair space which is arranged at least partially within the intercar gangway.
A display device (100b, 100e) comprising: a substrate; an emissive layer provided on the substrate and configured to emit light; a plurality of color converting layers (130R, 130B, 130G) provided on the emissive layer, each of the plurality of color converting layers (130R, 130B, 130G) being arranged on a portion of the emissive layer and configured to convert the emitted by the emissive layer into different color lights; at least one barrier arranged on the emissive layer between the plurality of color converting layers (130R, 130B, 130G) to spatially separate the plurality of color converting layers (130R, 130B, 130G) from each other; a first insulating layer provided between the plurality of color converting layers (130R, 130B, 130G) and the emissive layer, the first insulating layer comprising a plurality of first openings respectively corresponding to the plurality of color converting layers (130R, 130B, 130G); and a second insulating layer provided between the first insulating layer and the plurality of color converting layers (130R, 130B, 130G), characterized in that the device further comprises a first reflective layer provided on an upper surface of the emissive layer, the first reflective layer configured to reflect the light incident from the emissive layer back into the emissive layer, wherein the first reflective layer is provided between the plurality of first openings and spaced apart from the plurality of first openings. a substrate; an emissive layer provided on the substrate and configured to emit light; a plurality of color converting layers (130R, 130B, 130G) provided on the emissive layer, each of the plurality of color converting layers (130R, 130B, 130G) being arranged on a portion of the emissive layer and configured to convert the emitted by the emissive layer into different color lights; at least one barrier arranged on the emissive layer between the plurality of color converting layers (130R, 130B, 130G) to spatially separate the plurality of color converting layers (130R, 130B, 130G) from each other; a first insulating layer provided between the plurality of color converting layers (130R, 130B, 130G) and the emissive layer, the first insulating layer comprising a plurality of first openings respectively corresponding to the plurality of color converting layers (130R, 130B, 130G); and a second insulating layer provided between the first insulating layer and the plurality of color converting layers (130R, 130B, 130G), characterized in that the device further comprises a first reflective layer provided on an upper surface of the emissive layer, the first reflective layer configured to reflect the light incident from the emissive layer back into the emissive layer, wherein the first reflective layer is provided between the plurality of first openings and spaced apart from the plurality of first openings.
A multi-factor method of optimizing a quantity of inks in a spot color ink inventory associated with an ink stock management system with an electronic device having a processor executing a set of instructions to perform the steps comprising: importing a first set of spot color data from the ink stock management system, the first set of spot color data comprising a plurality of color records, each color record relating to an ink in the spot color ink inventory and comprising at least color identification information, color space values or spectral information, and ink cost information, the ink cost information including ink usage over a predetermined period of time; setting a color tolerance; obtaining color differences between the color space values or spectral information of pairs of color records in the first set of spot color data; identifying color records meeting a first replacement factor of having a color difference within tolerance of another color record; designating a second color record as a replacement for a first color record if at least one second replacement factor is met; exporting a second set of spot color data including the designated replacement color records to the ink stock management system; wherein the second set of spot color data is used to reduce the number of inks in the spot color ink inventory. importing a first set of spot color data from the ink stock management system, the first set of spot color data comprising a plurality of color records, each color record relating to an ink in the spot color ink inventory and comprising at least color identification information, color space values or spectral information, and ink cost information, the ink cost information including ink usage over a predetermined period of time; setting a color tolerance; obtaining color differences between the color space values or spectral information of pairs of color records in the first set of spot color data; identifying color records meeting a first replacement factor of having a color difference within tolerance of another color record; designating a second color record as a replacement for a first color record if at least one second replacement factor is met; exporting a second set of spot color data including the designated replacement color records to the ink stock management system;
A logistics system comprising: - a load carrier comprising: ∘ a deck comprising a top load carrying surface and a flank, ∘ a plurality of locking protuberances extending from and being arranged spaced apart from one another on the load carrying surface of the deck, and - a superstructure, which is a merchandising unit made of sheet material and configured to be attached to the load carrier, the superstructure comprising a first section configured to extend from the load carrying surface of the load carrier, characterized in that the superstructure comprises a second section, which extends from the first section so as to extend along the load carrying surface of the load carrier, the second section comprising a plurality of receptive cavities for receiving the respective plurality of locking protuberances of the load carrier. - a load carrier comprising: ∘ a deck comprising a top load carrying surface and a flank, ∘ a plurality of locking protuberances extending from and being arranged spaced apart from one another on the load carrying surface of the deck, and ∘ a deck comprising a top load carrying surface and a flank, ∘ a plurality of locking protuberances extending from and being arranged spaced apart from one another on the load carrying surface of the deck, and - a superstructure, which is a merchandising unit made of sheet material and configured to be attached to the load carrier, the superstructure comprising a first section configured to extend from the load carrying surface of the load carrier,