mhurhangee/patent-ind-claim-en huggingface dataset:
Storage system, comprising a base steel structure assembly and an overlying racking system, wherein the base steel structure assembly supports the overlying racking system, said racking system having upright columns which support horizontal beams extending therebetween and connected thereto, said base steel structure assembly comprising: a front column extending from a front baseplate ; a rear column generally parallel to said front column and extending from a rear baseplate ; an upper horizontal member extending between an upper end of said front and rear columns and releasably secured thereto; a lower horizontal member extending between a lower end of said front and rear columns and releasably secured thereto; at least one brace extending diagonally between said front and rear columns and releasably secured thereto; characterized in that said upper horizontal member being securable to said upright columns of said overlying racking system for supporting said overlying racking system; and, said front and rear columns being provided with holes therethrough for securement of a support beam respectively to front and rear columns of an adjacent of said base steel structure assembly, and wherein said upright columns extend upwardly from respective baseplates ; said respective baseplates have holes extending therethrough; said upper horizontal member is provided with holes therethrough which register with the holes in the respective baseplates of the upright columns for bolting of the respective baseplates to the upper horizontal member . a front column extending from a front baseplate ; a rear column generally parallel to said front column and extending from a rear baseplate ; an upper horizontal member extending between an upper end of said front and rear columns and releasably secured thereto; a lower horizontal member extending between a lower end of said front and rear columns and releasably secured thereto; at least one brace extending diagonally between said front and rear columns and releasably secured thereto; characterized in that said upper horizontal member being securable to said upright columns of said overlying racking system for supporting said overlying racking system; and, said front and rear columns being provided with holes therethrough for securement of a support beam respectively to front and rear columns of an adjacent of said base steel structure assembly, and wherein said upright columns extend upwardly from respective baseplates ; said respective baseplates have holes extending therethrough; said upper horizontal member is provided with holes therethrough which register with the holes in the respective baseplates of the upright columns for bolting of the respective baseplates to the upper horizontal member .
An image processing method of performing filtering at the boundary of two adjacent image blocks (B P ,B Q ) using a plurality of deblocking filters having different filter strengths, the image processing method comprising: deriving a quantization parameter (QP) based on quantization parameters (QP A ) and (QP B ) used for the first block (B P ) and the second block (B Q ); a first parameter calculating step (S100; S300) of calculating a first parameter (BS) indicating a boundary strength between the two adjacent image blocks (B P ,B Q ); a second parameter calculating step (S120) of calculating a second parameter (Tc) and a third parameter (β) representing threshold values for the selection of deblocking filters, the third parameter (β) being determined by the quantization parameter (QP); and a selecting step (S130; S330) of selecting a deblocking filter to be used in the filtering from among the deblocking filters, using the threshold values represented by the second parameter (Tc) and the third parameter (β); characterized in that the second parameter (Tc) is determined with reference to a table (Tctable) using, as an index for lookup in the table (Tctable), a linear sum of the quantization parameter (QP) and the first parameter (BS); wherein the index shows strict monotonic increase with increase of the first parameter (BS). deriving a quantization parameter (QP) based on quantization parameters (QP A ) and (QP B ) used for the first block (B P ) and the second block (B Q ); a first parameter calculating step (S100; S300) of calculating a first parameter (BS) indicating a boundary strength between the two adjacent image blocks (B P ,B Q ); a second parameter calculating step (S120) of calculating a second parameter (Tc) and a third parameter (β) representing threshold values for the selection of deblocking filters, the third parameter (β) being determined by the quantization parameter (QP); and a selecting step (S130; S330) of selecting a deblocking filter to be used in the filtering from among the deblocking filters, using the threshold values represented by the second parameter (Tc) and the third parameter (β); characterized in that the second parameter (Tc) is determined with reference to a table (Tctable) using, as an index for lookup in the table (Tctable), a linear sum of the quantization parameter (QP) and the first parameter (BS); wherein the index shows strict monotonic increase with increase of the first parameter (BS).
A semiconductor device comprising: a first conductive-type semiconductor layer made of SiC; a second conductive-type body region formed in a surficial portion of the semiconductor layer ; a first conductive-type source region formed in a surficial portion of the body region ; a gate insulating film provided on the semiconductor layer and containing nitrogen atoms at the interface of the oxide gate insulating film with the first conductive-type semiconductor layer , the gate insulating film including a first portion in contact with the semiconductor layer outside the body region , a second portion in contact with the body region , and a third portion in contact with the source region ; and a gate electrode provided on the gate insulating film in an area extending across the semiconductor layer outside the body region , the body region , and the source region , the gate electrode having its two lateral edge s recessed from the edges of the gate insulating film , wherein the third portion of the gate insulating film has a thickness (T3) greater than a thickness (T1) of the first portion and a thickness (T2) of the second portion , and and wherein the thickness (T2) of the second portion of the gate insulating film is equal to or greater than 30 nm, characterized in that the gate electrode protrudes above the source region by 0.2 to 1 μm from the boundary between the body region and the source region . a first conductive-type semiconductor layer made of SiC; a second conductive-type body region formed in a surficial portion of the semiconductor layer ; a first conductive-type source region formed in a surficial portion of the body region ; a gate insulating film provided on the semiconductor layer and containing nitrogen atoms at the interface of the oxide gate insulating film with the first conductive-type semiconductor layer , the gate insulating film including a first portion in contact with the semiconductor layer outside the body region , a second portion in contact with the body region , and a third portion in contact with the source region ; and a gate electrode provided on the gate insulating film in an area extending across the semiconductor layer outside the body region , the body region , and the source region , the gate electrode having its two lateral edge s recessed from the edges of the gate insulating film , wherein the third portion of the gate insulating film has a thickness (T3) greater than a thickness (T1) of the first portion and a thickness (T2) of the second portion , and and wherein the thickness (T2) of the second portion of the gate insulating film is equal to or greater than 30 nm, characterized in that the gate electrode protrudes above the source region by 0.2 to 1 μm from the boundary between the body region and the source region .
Method for the automated production of an electronic component , in which at least one SMD component part and/or at least one conductor track and/or at least one plug component and/or at least one printed electronic component part is/are arranged on at least one substrate, wherein, in order to prepare for production by means of 3-D printing, an item of structural information which describes the structure of the electronic component and is created, in particular, using a CAD and/or CAM device is used to determine an item of production information comprising a first machine-readable control instruction set for a production device at least partially designed for 3-D printing, characterized in that an item of post-processing information is determined, together with the first control instruction set , from the structural information and, in particular, additionally the production information, which post-processing information comprises an item of recycling information comprising a second machine-readable control instruction set for a recycling device , designed for the at least partially, in particular completely, automated recycling of the electronic component , for recycling the electronic component by recovering at least one material of the electronic component and/or an item of repair information comprising a third machine-readable control instruction set for a repair device designed to at least partially automatically repair the electronic component , wherein the electronic component is produced in an at least partially, preferably completely, automated manner by means of 3-D printing using the production device that executes the first control instruction set , wherein the post-processing information is stored in a storage means of the electronic component .
A conjugate of formula R-L-M for use in a method of diagnosis in vivo of amyloid related diseases by targeting an amyloid deposit, wherein R is angiopep-2, L is a linker or a chemical bond, and M is an optical imaging group, radioactive isotope, or an imaging group suitable for MRI or CT detection.
A method of mapping electrical activation of tissue, comprising: receiving, at an electroanatomical mapping system , a plurality of electrophysiology data points, each of the plurality of electrophysiology data points including local activation timing information; selecting each of the plurality of electrophysiology data points; and identifying a subset of neighboring electrophysiology data points falling within a preset distance to the selected electrophysiology data point, the electroanatomical mapping system computing a slow conduction metric for the selected electrophysiology data point as one of a weighted variance of the local activation timing information for the subset of the plurality of electrophysiology data points and a weighted standard deviation of the local activation timing information for the subset of the plurality of electrophysiology data points, where weighting is inversely related to distance from the selected electrophysiology data point, thereby creating a slow conduction map. receiving, at an electroanatomical mapping system , a plurality of electrophysiology data points, each of the plurality of electrophysiology data points including local activation timing information; selecting each of the plurality of electrophysiology data points; and identifying a subset of neighboring electrophysiology data points falling within a preset distance to the selected electrophysiology data point, the electroanatomical mapping system computing a slow conduction metric for the selected electrophysiology data point as one of a weighted variance of the local activation timing information for the subset of the plurality of electrophysiology data points and a weighted standard deviation of the local activation timing information for the subset of the plurality of electrophysiology data points, where weighting is inversely related to distance from the selected electrophysiology data point, thereby creating a slow conduction map.
A three-layer clad steel plate comprising: a carbon steel base material; and stainless steel mating materials each disposed on either surface of the base material, a plate thickness ratio L represented by Equation being 1.0 or more to 5.0 or less, a plurality of protruded portions and depressed portions being formed on at least one surface of the clad steel plate, a pattern of a depression-protrusion pattern including the protruded portions and depressed portions being entirely random on the surface, wherein the area of the protruded portions is 20 to 80% relative to the area of a surface of the clad steel plate on which the protruded portions are formed, and wherein the protruded portions and depressed portions have a depression-protrusion difference of 0.02 mm or more to 0.2 mm or less in the plate thickness direction, the plate thickness ratio L = the thickness of the base material / the total thickness of the mating materials wherein the thickness of the base material and the thicknesses of the mating materials are those at the protruded portions.
A process for removing moisture from sludge, the process comprising the steps of: conveying the sludge, using a screw conveyor comprising flights, on an incline through a housing ; and heating the sludge as it is conveyed on the incline to evaporate moisture in the sludge; characterised in that the incline angle is adjusted such that the sludge is conveyed in the form of discrete accumulations, and such that a portion of a lower surface of the housing , between each accumulation of sludge and a subsequent flight remains exposed and is not covered by the sludge . conveying the sludge, using a screw conveyor comprising flights, on an incline through a housing ; and heating the sludge as it is conveyed on the incline to evaporate moisture in the sludge; characterised in that the incline angle is adjusted such that the sludge is conveyed in the form of discrete accumulations, and such that a portion of a lower surface of the housing , between each accumulation of sludge and a subsequent flight remains exposed and is not covered by the sludge .
An air guide arrangement for a downdraft fume extraction device, having at least two plinth ventilation boxes connected in series one behind the other for mounting in a furniture plinth , wherein the plinth ventilation boxes have at least one air outlet covered by an exhaust air grille and a first air inlet , wherein an inner side of an upper side of the plinth ventilation boxes and/or of a lower side of the plinth ventilation boxes lying opposite the upper side has a receptacle for a support foot , wherein the plinth ventilation boxes have a second air inlet , the first air inlet being arranged in a first plane, the second air inlet being arranged in a second plane spaced parallel to the first plane, and the air outlet being arranged in a third plane arranged orthogonally to the first and second planes and between the first and second air inlets , wherein the plinth ventilation boxes comprise at least one air guide element which is accommodated in the plinth ventilation box and via which air flowing into the plinth ventilation box is diverted in the direction of the air outlet , wherein an air volume flow which is not diverted via the air guide element of the respective plinth ventilation box is guided through via the second air inlet to the first air inlet of the plinth ventilation box following in the air flow direction and wherein from a first of the plinth ventilation boxes a part of an air flow is passed to the air outlet of this plinth ventilation box and another part of the air flow is passed to the at least one plinth ventilation box following in a flow direction of the air flow of the first plinth ventilation box .
An automatic drug delivery device comprising: a housing ; a skin sensor element coupled to the housing and movable relative to the housing, wherein the skin sensor element is biased into a front position relative to the housing and is movable to a rear position relative to the housing when the skin sensor element is pressed against an injection site on a patient, a needle assembly comprising a hypodermic needle , the hypodermic needle extending outside of the housing when the device is in a needle insertion position; a drug delivery mechanism comprising a first stored energy source within the housing and a further stored energy source , wherein, in operation, the first stored energy source of the drug delivery mechanism is configured to move the hypodermic needle from an initial position to the needle insertion position and the further stored energy source is releasable to deliver a drug through the hypodermic needle ; and a needle retraction mechanism configured to withdraw the hypodermic needle into the housing when the needle retraction mechanism is released, wherein the needle retraction mechanism is coupled to the skin sensor element such that when the skin sensor element is moved from the rear position towards the front position, and the hypodermic needle is in the needle insertion position, the needle retraction mechanism is released. a housing ; a skin sensor element coupled to the housing and movable relative to the housing, wherein the skin sensor element is biased into a front position relative to the housing and is movable to a rear position relative to the housing when the skin sensor element is pressed against an injection site on a patient, a needle assembly comprising a hypodermic needle , the hypodermic needle extending outside of the housing when the device is in a needle insertion position; a drug delivery mechanism comprising a first stored energy source within the housing and a further stored energy source , wherein, in operation, the first stored energy source of the drug delivery mechanism is configured to move the hypodermic needle from an initial position to the needle insertion position and the further stored energy source is releasable to deliver a drug through the hypodermic needle ; and a needle retraction mechanism configured to withdraw the hypodermic needle into the housing when the needle retraction mechanism is released, wherein the needle retraction mechanism is coupled to the skin sensor element such that when the skin sensor element is moved from the rear position towards the front position, and the hypodermic needle is in the needle insertion position, the needle retraction mechanism is released.
A suction and removal apparatus for sucking and removing in a closed room powder attached to garments of a person, the suction and removal apparatus comprising a suction device , a suction head containing a high efficiency particulate air (HEPA) filter and having a suction port , and a flexible tube connected between the suction device and the suction head : wherein the connection between the suction head and the flexible tube is attachable and detachable; and wherein the suction device is installed outside or inside the room and the suction head and part of the flexible tube are installed inside the room; characterized in that the suction port of the suction head has a cap that closes the suction port , wherein the suction head includes a housing and the HEPA filter contained in the housing , such that the housing and the HEPA filter can be separated from the connection with the flexible tube and disposed of; the housing includes a cylindrical peripheral wall , a first end wall that closes a first end of the cylindrical peripheral wall and is provided with a suction port , and a second end wall that closes a second end of the cylindrical peripheral wall and is connected to the flexible tube ; and the HEPA filter is in close contact with an inner surface of the cylindrical peripheral wall of the housing for shutting down the movement of powder while maintaining air flow between the first end wall and the second end wall . wherein the connection between the suction head and the flexible tube is attachable and detachable; and wherein the suction device is installed outside or inside the room and the suction head and part of the flexible tube are installed inside the room; characterized in that the suction port of the suction head has a cap that closes the suction port , wherein the suction head includes a housing and the HEPA filter contained in the housing , such that the housing and the HEPA filter can be separated from the connection with the flexible tube and disposed of; the housing includes a cylindrical peripheral wall , a first end wall that closes a first end of the cylindrical peripheral wall and is provided with a suction port , and a second end wall that closes a second end of the cylindrical peripheral wall and is connected to the flexible tube ; and the HEPA filter is in close contact with an inner surface of the cylindrical peripheral wall of the housing for shutting down the movement of powder while maintaining air flow between the first end wall and the second end wall .
A method of making a flexible textile comprising: providing a textile having a first surface, the first surface comprising a thermoplastic elastomeric material; and disposing an optical element on the thermoplastic elastomeric material, wherein the optical element, as disposed on the first surface, imparts a structural color to the textile, the optical element comprising optical layers formed in a layer-by-layer manner where each layer has a different index of refraction and each layer has a thickness of 10 to 500 nanometers. providing a textile having a first surface, the first surface comprising a thermoplastic elastomeric material; and disposing an optical element on the thermoplastic elastomeric material, wherein the optical element, as disposed on the first surface, imparts a structural color to the textile, the optical element comprising optical layers formed in a layer-by-layer manner where each layer has a different index of refraction and each layer has a thickness of 10 to 500 nanometers.
A nickel-base alloy consisting of, in atomic percent: up to 8 percent Fe, up to 16 percent Co, between 17 and 25 percent Cr, up to 3 percent Mo, up to 2 percent W, between 3 and 5 percent Al, between 3 and 7.5 percent Nb, up to 3 percent Ta, up to 0.2 percent Ti, up to 0.5 percent C, up to 0.175 percent B, up to 0.07 percent Zr, up to 1 percent Mn, up to 1 percent Si, up to 0.2 percent Hf; the balance consisting of Ni and incidental impurities; wherein, the atomic ratio of Al to Nb is between 0.4 and 1.7; and, the atomic ratio of the sum of Al and Ti to Nb is between 0.4 and 1.8.