mhurhangee/ep-ind-claims huggingface dataset:
An image decoder for decoding encoded image data, the image decoder comprising a processor and a memory, the processor, working together with the memory, being configured to: decode, from the encoded image data, (i) relative prediction set information for deriving prediction set information, the prediction set information being indicative of a plurality of predefined prediction modes, wherein the plurality of predefined prediction modes includes at least one prediction mode, the prediction mode indicating a spatial direction, (ii) a prediction mode information for identifying a prediction mode of the plurality of predefined prediction modes, and (iii) residual data for each block of a plurality of blocks to be intra-predicted; derive, using the relative prediction set information and a prediction set information that has been already decoded, the prediction set information; select, using the prediction set information and the prediction mode information, one prediction mode from the plurality of predefined prediction modes; generate, using the selected prediction mode, a predicted image of at least one block of the plurality of blocks to be intra-predicted; and generate a decoded image of the block by adding the predicted image of the block and the residual data for the block. decode, from the encoded image data, (i) relative prediction set information for deriving prediction set information, the prediction set information being indicative of a plurality of predefined prediction modes, wherein the plurality of predefined prediction modes includes at least one prediction mode, the prediction mode indicating a spatial direction, (ii) a prediction mode information for identifying a prediction mode of the plurality of predefined prediction modes, and (iii) residual data for each block of a plurality of blocks to be intra-predicted; (i) relative prediction set information for deriving prediction set information, the prediction set information being indicative of a plurality of predefined prediction modes, wherein the plurality of predefined prediction modes includes at least one prediction mode, the prediction mode indicating a spatial direction, (ii) a prediction mode information for identifying a prediction mode of the plurality of predefined prediction modes, and (iii) residual data for each block of a plurality of blocks to be intra-predicted; derive, using the relative prediction set information and a prediction set information that has been already decoded, the prediction set information; select, using the prediction set information and the prediction mode information, one prediction mode from the plurality of predefined prediction modes; generate, using the selected prediction mode, a predicted image of at least one block of the plurality of blocks to be intra-predicted; and generate a decoded image of the block by adding the predicted image of the block and the residual data for the block.
An obturator assembly; which comprises: an obturator housing; an obturator member mounted to the obturator housing, the obturator member defining a longitudinal axis and having proximal and distal ends, the obturator member including an obturator rod and a penetrating end, the penetrating end defining a substantially planar dissecting segment and a central rod segment; an obturator sleeve coaxially mounted about the obturator member and adapted for reciprocal longitudinal movement between a retracted position and an extended position; characterised in that the obturator rod is interchangeable; and the central rod segment extends distally beyond a distal-most end of the planar dissecting segment. an obturator housing; an obturator member mounted to the obturator housing, the obturator member defining a longitudinal axis and having proximal and distal ends, the obturator member including an obturator rod and a penetrating end, the penetrating end defining a substantially planar dissecting segment and a central rod segment; an obturator sleeve coaxially mounted about the obturator member and adapted for reciprocal longitudinal movement between a retracted position and an extended position;
A composition comprising: - a hyperbranched polymer attached to a core; and - a biologically active moiety; wherein the hyperbranched polymer contains at least two molecular chains, which molecular chains are of sufficient length to be so arranged as to form a cavity to accommodate the biologically active moiety; wherein the molecular chains contain sterically demanding capping groups C; whereby the biologically active moiety is attached to the core by means of a substantially non-enzymatically cleavable linker L; and wherein the biologically active moiety is selected from natriuretic peptides. - a hyperbranched polymer attached to a core; and - a biologically active moiety;
Can combustor for a can-annular combustor arrangement in a gas turbine, the can combustor at least comprising an essentially cylindrical casing with an axially upstream front panel and an axially downstream outlet end, a number of premixed burners, extending in an upstream direction from said front panel and having a burner exit, supported by this front panel, for supplying a fuel/air mixture into a combustion zone inside the casing, wherein up to four premixed burners are attached to the front panel in a substantially annular array, each burner having a mixing tube to induce a swirl flow of said fuel/air mixture and wherein no central burner is provided, characterized in that each burner is having a conical swirl generator and in that the alignment of the central longitudinal axis of at least one premixed burner, attached to the front panel, differs from the alignment of the central longitudinal axis of at least one other premixed burner (14", 14"', 14"") in an radial direction.
A quantum dot, comprising a core comprising a first semiconductor nanocrystal; a first shell comprising a second semiconductor nanocrystal comprising a Group III-VI compound disposed on the core; and a second shell comprising a third semiconductor nanocrystal having a composition different from that of the second semiconductor nanocrystal on the first shell; wherein one of the first semiconductor nanocrystal and the third semiconductor nanocrystal comprises a Group III-V compound including InP, GaP, InAs, GaAs, InSb, GaSb, InGaP, InAsP, InSbP, InGaAs, InZnP, GaZnP, InZnAs or a combination thereof and the other comprises a Group II-VI compound comprising ZnSe, ZnTeSe, ZnSeS, ZnTeS, ZnS, or a combination thereof. a core comprising a first semiconductor nanocrystal; a first shell comprising a second semiconductor nanocrystal comprising a Group III-VI compound disposed on the core; and a second shell comprising a third semiconductor nanocrystal having a composition different from that of the second semiconductor nanocrystal on the first shell; wherein one of the first semiconductor nanocrystal and the third semiconductor nanocrystal comprises a Group III-V compound including InP, GaP, InAs, GaAs, InSb, GaSb, InGaP, InAsP, InSbP, InGaAs, InZnP, GaZnP, InZnAs or a combination thereof and the other comprises a Group II-VI compound comprising ZnSe, ZnTeSe, ZnSeS, ZnTeS, ZnS, or a combination thereof.
A hydro-mount, comprising a core and a housing, which are connected to each other by a substantially hollow-cone-shaped suspension spring made of a rubber-elastic material, and a working chamber and an equalisation chamber, which are filled with a damping liquid and connected to each other in a flow-conducting manner, the working chamber and the equalisation chamber being separated from each other on their axially facing sides by a partition wall, the partition wall having a damping channel for damping low-frequency, large-amplitude vibrations, which connects the working chamber and the equalisation chamber, and comprising an orifice cage formed by two orifice discs (10, 11) disposed adjacent to each other with an axial spacing from each other, with a membrane for insulting high-frequency, small-amplitude vibrations being disposed, in a manner capable of vibrating, in the gap formed by the spacing, with the membrane being electromagnetically switchable, with a magnetic elastomer, which can be activated by at least one electric coil with a back iron, being disposed as a switching member within the gap, for releasing/locking in place the membrane within the gap, and with one of the orifice discs having a recess which is axially open in the direction of the adjacent orifice disc and in which the switching member is disposed so as to be capable of relative movement, characterised in that the magnetic elastomer is formed by a magnetic foam, and that a coil and a back iron are disposed on both sides of the switching member, the coil and the back iron each being disposed in an orifice disc (10, 11).
A method for preparing a tissue graft, comprising the steps: (a) obtaining a placenta from a subject, wherein the placenta comprises an amniotic membrane layer and a chorion tissue layer; (b) cleaning the placenta with a hyperisotonic solution comprising NaCl in a concentration range of from about 10% to about 30%; (c) separating the chorion tissue layer from the amnion layer, wherein the amnion comprises epithelium cells adjacent to a basement membrane and a fibroblast cellular layer; (d) removing substantially all of the epithelium cells to expose the basement membrane of the amnion to produce a first membrane; (e) mounting the first membrane onto a surface of a drying fixture, wherein the basement membrane of the first membrane is adjacent to the surface of the drying fixture; (f) mounting one or more additional membranes on the first membrane to produce a layered tissue graft; and (g) dehydrating the layered tissue graft on the drying fixture. (a) obtaining a placenta from a subject, wherein the placenta comprises an amniotic membrane layer and a chorion tissue layer; (b) cleaning the placenta with a hyperisotonic solution comprising NaCl in a concentration range of from about 10% to about 30%; (c) separating the chorion tissue layer from the amnion layer, wherein the amnion comprises epithelium cells adjacent to a basement membrane and a fibroblast cellular layer; (d) removing substantially all of the epithelium cells to expose the basement membrane of the amnion to produce a first membrane; (e) mounting the first membrane onto a surface of a drying fixture, wherein the basement membrane of the first membrane is adjacent to the surface of the drying fixture; (f) mounting one or more additional membranes on the first membrane to produce a layered tissue graft; and (g) dehydrating the layered tissue graft on the drying fixture.
Fastening device for fastening a load to a profile rail, which has a substantially C-shaped cross-section and a longitudinal slot, wherein the fastening device has a cover plate for bearing on the profile rail, a threaded plate, which has a threaded bore and a length greater than the width of the longitudinal slot and a width smaller than the width of the longitudinal slot, and a holding device arranged on the cover plate for the threaded plate for inserting into the profile rail, in which the threaded plate is held at a distance from and parallel to the cover plate, wherein at least one guide element is provided between the holding device and the cover plate, by which the holding device is mounted so as to be displaceably axially guided relative to the cover plate, wherein the at least one guide element is configured as a spring element, by which the holding device is resiliently connected to the cover plate and has at least one spring tab which extends in an arcuate manner between the holding device and the cover plate, wherein a section connected to the cover plate extends in each case substantially parallel to the plane of the cover plate and a section provided on the holding device extends substantially in the insertion direction E, wherein a mount for the spring element is provided on the cover plate, in which mount the spring element is mounted, or the spring element is securely connected to the cover plate.
A card connector comprising - a connector body, - a cover member in combination with the connector body to have a flat and hollow housing shape, - contact terminals arranged in the connector body for electric connection with a card, and - a card-ejection preventing mechanism provided on a card-inserting opening side of the connector body, characterized in that the card-ejection preventing mechanism comprises - a supporting wall provided at a central portion in a upper end of the connector body, wherein the upper end of the connector body is defined at the card-inserting opening side of the connector body, - side walls of the connector body, - a shaft provided between the supporting wall and one of the side walls, - a card-stopper cap having a through-hole through which the shaft passes and being adapted to be slidable along the shaft between an open position and a locked position in the card-inserting opening. - a connector body, - a cover member in combination with the connector body to have a flat and hollow housing shape, - contact terminals arranged in the connector body for electric connection with a card, and - a card-ejection preventing mechanism provided on a card-inserting opening side of the connector body, - a supporting wall provided at a central portion in a upper end of the connector body, wherein the upper end of the connector body is defined at the card-inserting opening side of the connector body, - side walls of the connector body, - a shaft provided between the supporting wall and one of the side walls, - a card-stopper cap having a through-hole through which the shaft passes and being adapted to be slidable along the shaft between an open position and a locked position in the card-inserting opening.
A method for performing cell reselection in a mobile communication system, comprising the steps of: reading, by a user equipment, UE, the Access Class, AC, barring parameters of the serving cell which are broadcast from a base station, and performing an AC barring check; characterized by: calculating the cell reselection values of the serving cell and the adjacent cells according to the cell reselection parameters broadcast by the base station when the access class barring check fails; subtracting, by the UE, a value related with the access probability values and an adjusting factor ΔQ s from the cell reselection values of the current serving cell when the UE calculates the cell reselection values; and ranking the calculated cell reselection values, selecting by the UE the cell corresponding to the maximum value of the calculated cell reselection values as the serving cell of the UE. reading, by a user equipment, UE, the Access Class, AC, barring parameters of the serving cell which are broadcast from a base station, and performing an AC barring check; characterized by: calculating the cell reselection values of the serving cell and the adjacent cells according to the cell reselection parameters broadcast by the base station when the access class barring check fails; subtracting, by the UE, a value related with the access probability values and an adjusting factor ΔQ s from the cell reselection values of the current serving cell when the UE calculates the cell reselection values; and ranking the calculated cell reselection values, selecting by the UE the cell corresponding to the maximum value of the calculated cell reselection values as the serving cell of the UE. calculating the cell reselection values of the serving cell and the adjacent cells according to the cell reselection parameters broadcast by the base station when the access class barring check fails; subtracting, by the UE, a value related with the access probability values and an adjusting factor ΔQ s from the cell reselection values of the current serving cell when the UE calculates the cell reselection values; and ranking the calculated cell reselection values, selecting by the UE the cell corresponding to the maximum value of the calculated cell reselection values as the serving cell of the UE.
An equipment for testing one or more sensors sensitive to a magnetic field through the generation of a magnetic field and comprising: - A base plane comprising one or more fixing positions on which said one or more sensors to be tested can be arranged; - Means to inject electric current; - Means (10, 15) for the generation of a magnetic field through the passage of the electric current injected; - Wherein said means (10, 15) for the generation of the magnetic field comprise: - Two or more first linear tracks, parallel between them, in which the electric current injected can pass and positioned on the base plane along a first direction; - Two or more second linear tracks, parallel between them, on which the electric current injected can pass and positioned on the base plane along a second direction, orthogonal to the first direction; - An electronic processor programmed to control the injection of current in the tracks by said electric current means in such a way that the current passes in a single direction and/or in two opposite directions; - Wherein each of the fixing positions is placed at a point so that the first linear tracks are arranged substantially symmetrically about the first direction on both sides of said point and/or so that the second linear tracks are arranged substantially symmetrically about the second direction on both sides of said point. - A base plane comprising one or more fixing positions on which said one or more sensors to be tested can be arranged; - Means to inject electric current; - Means (10, 15) for the generation of a magnetic field through the passage of the electric current injected; - Wherein said means (10, 15) for the generation of the magnetic field comprise: - Two or more first linear tracks, parallel between them, in which the electric current injected can pass and positioned on the base plane along a first direction; - Two or more second linear tracks, parallel between them, on which the electric current injected can pass and positioned on the base plane along a second direction, orthogonal to the first direction; - An electronic processor programmed to control the injection of current in the tracks by said electric current means in such a way that the current passes in a single direction and/or in two opposite directions; - Wherein each of the fixing positions is placed at a point so that the first linear tracks are arranged substantially symmetrically about the first direction on both sides of said point and/or so that the second linear tracks are arranged substantially symmetrically about the second direction on both sides of said point.
A device for light based skin treatment, the device comprising: a light source for providing an incident light beam for treating a skin, optical elements for focusing the incident light beam in a focal point inside the skin, a skin interface element for, during use of the device, providing optical coupling of the incident light beam from the device into the skin, the skin interface element comprising a transparent exit window for allowing the incident light beam to leave the device, on top of the exit window, a transparent mixture of a polar substance and an apolar substance, and on top of the transparent mixture, a transparent foil, the foil being more hydrophobic than the transparent exit window. a light source for providing an incident light beam for treating a skin, optical elements for focusing the incident light beam in a focal point inside the skin, a skin interface element for, during use of the device, providing optical coupling of the incident light beam from the device into the skin, the skin interface element comprising a transparent exit window for allowing the incident light beam to leave the device, on top of the exit window, a transparent mixture of a polar substance and an apolar substance, and on top of the transparent mixture, a transparent foil, the foil being more hydrophobic than the transparent exit window. a transparent exit window for allowing the incident light beam to leave the device, on top of the exit window, a transparent mixture of a polar substance and an apolar substance, and on top of the transparent mixture, a transparent foil, the foil being more hydrophobic than the transparent exit window.
A self-propelled offshore wind farm installation vessel having at least four jack-up legs and a hull with two cantilevered arms in the stern end and an unloading space in between the cantilevered arms, which hull has a cargo main deck and a side section extending upwards at either longitudinal side of the cargo main deck, the wind farm installation vessel having ballast tanks and a ballast pumping system for changing the vessel draught between at least a first draught, at which the cargo main deck is submerged below sea level, and a second draught, at which the cargo main deck is above sea level, characterized in that the wind farm installation vessel has a main crane mounted at one of the side sections, which main crane has a boom with a length of at least 50 metres, and that the individual jack-up leg has a length of at least 45 metres, such that the wind farm installation vessel at open see at the area of the offshore installation site has at least a first operating position, at which the vessel ballasted to the first draught and with at least two jack-up legs in contact with the sea bottom comprises means to receive at the cargo main deck a barge with parts for construction of the wind farm, and a second operating position, at which the vessel is jacked-up by the at least four jack-up legs and the main crane can lift a part from the barge on the main cargo deck to the wind turbine construction erected from the sea bottom.
A high-strength steel material having excellent brittle crack arrestability and welding zone brittle crack initiation resistance, comprising: by wt%, carbon: 0.05% to 0.09%, manganese (Mn): 1.61% to 2.0%, nickel (Ni): 0.3% to 0.8%, niobium (Nb): 0.005% to 0.04%, titanium (Ti): 0.005% to 0.04%, copper (Cu): 0.1% to 0.5%, silicon (Si): 0.05% to 0.3%, aluminum (Al): 0.005% to 0.05%, phosphorus: 100 ppm or less, sulfur: 40 ppm or less, iron (Fe) as a residual component thereof, and inevitable impurities, wherein a microstructure of a central portion includes, by area%, acicular ferrite in an amount of 70% or greater, pearlite in an amount of 10% or less, and one or more selected from a group consisting of ferrite, bainite, and martensite-austenite, as residual components; a circle-equivalent diameter of pearlite being 15 μm or less; a surface portion microstructure in a region at a depth of 2 mm or less, directly below a surface, includes, by area%, ferrite in an amount of 30% or greater and one or more of bainite, martensite, and pearlite as residual components; and a heat affected zone formed during welding includes, by area%, martensite-austenite in an amount of 5% or less. by wt%, carbon: 0.05% to 0.09%, manganese (Mn): 1.61% to 2.0%, nickel (Ni): 0.3% to 0.8%, niobium (Nb): 0.005% to 0.04%, titanium (Ti): 0.005% to 0.04%, copper (Cu): 0.1% to 0.5%, silicon (Si): 0.05% to 0.3%, aluminum (Al): 0.005% to 0.05%, phosphorus: 100 ppm or less, sulfur: 40 ppm or less, iron (Fe) as a residual component thereof, and inevitable impurities, wherein a microstructure of a central portion includes, by area%, acicular ferrite in an amount of 70% or greater, pearlite in an amount of 10% or less, and one or more selected from a group consisting of ferrite, bainite, and martensite-austenite, as residual components; a circle-equivalent diameter of pearlite being 15 μm or less; a surface portion microstructure in a region at a depth of 2 mm or less, directly below a surface, includes, by area%, ferrite in an amount of 30% or greater and one or more of bainite, martensite, and pearlite as residual components; and a heat affected zone formed during welding includes, by area%, martensite-austenite in an amount of 5% or less.