mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: generating a set of print instructions including a nesting orientation of a plurality of pattern components of a textile product on a 2D space corresponding to a sheet of fabric; modifying the print instructions to include a plurality of print patterns corresponding to the plurality of pattern components , wherein the plurality of print patterns are oriented according to said nesting orientation , wherein relationships of the print patterns relative to the pattern components are Pos(x,y) Rotation, Scale; printing on the fabric the plurality of print patterns according to said generating and modifying. generating a set of print instructions including a nesting orientation of a plurality of pattern components of a textile product on a 2D space corresponding to a sheet of fabric; modifying the print instructions to include a plurality of print patterns corresponding to the plurality of pattern components , wherein the plurality of print patterns are oriented according to said nesting orientation , wherein relationships of the print patterns relative to the pattern components are Pos(x,y) Rotation, Scale; printing on the fabric the plurality of print patterns according to said generating and modifying.
Garment comprising: a garment body defining an inner surface suitable for wearing on an upper body, and an outer surface , the garment body having a front and a back , the garment body having an opening at its upper end, the opening forming a neck of the garment body ; and a storage pouch arranged on the inner surface of the back of the garment body towards the neck , the storage pouch being formed by a portion of the inner surface of the garment body and by an added piece , the added piece having an inner face facing the inner surface of the back of the garment body and an outer face facing the inner surface of the front of the garment body , the added piece being sized so that the interior of the storage pouch accommodates the folded garment body , and when the garment body is folded into the storage pouch the interior of the storage pouch is defined by the outer face of the added piece and by the external surface of the back of the garment body , the garment being characterized in that , a free upper edge of the added piece being of a shape substantially similar to the shape of the neck , the other edges of the added piece being connected to the inner surface of the garment body so as to form the storage pouch . a garment body defining an inner surface suitable for wearing on an upper body, and an outer surface , the garment body having a front and a back , the garment body having an opening at its upper end, the opening forming a neck of the garment body ; and a storage pouch arranged on the inner surface of the back of the garment body towards the neck , the storage pouch being formed by a portion of the inner surface of the garment body and by an added piece , the added piece having an inner face facing the inner surface of the back of the garment body and an outer face facing the inner surface of the front of the garment body , the added piece being sized so that the interior of the storage pouch accommodates the folded garment body , and when the garment body is folded into the storage pouch the interior of the storage pouch is defined by the outer face of the added piece and by the external surface of the back of the garment body , the garment being characterized in that , a free upper edge of the added piece being of a shape substantially similar to the shape of the neck , the other edges of the added piece being connected to the inner surface of the garment body so as to form the storage pouch .
Multi-channel optical transmitter for transmitting a multi-channel signal in the optical domain, wherein the multi-channel optical transmitter stores a first sequence of mappings ( U t ) successive in time, wherein, for any time slot, the mapping ( U t ) of the first sequence is the inverse of a corresponding mapping ( U t -1 ) of a second sequence of mappings ( U t -1 ) stored at a multi-channel optical receiver , wherein each one of the first and second sequences of mappings includes at least two distinct mappings, the multi-channel optical transmitter comprising: a plurality of symbol generators , each symbol generator being configured for generating a symbol stream at a common symbol rate based on a sub-stream of the data stream to be transmitted, each symbol stream including one symbol per time slot, wherein the symbols of the symbol streams at a given time slot constitute a symbol vector ( V t ), a digital mapping module for performing the first sequence of mappings ( U t ) on each symbol vector ( V t ) in order to obtain a mapped symbol vector ( U t V t ), an emission unit configured for emitting a multi-channel signal multiplexing a plurality of transmission channels, wherein each transmission channel is modulated with a symbol of the mapped symbol vector ( U t V t ). a plurality of symbol generators , each symbol generator being configured for generating a symbol stream at a common symbol rate based on a sub-stream of the data stream to be transmitted, each symbol stream including one symbol per time slot, wherein the symbols of the symbol streams at a given time slot constitute a symbol vector ( V t ), a digital mapping module for performing the first sequence of mappings ( U t ) on each symbol vector ( V t ) in order to obtain a mapped symbol vector ( U t V t ), an emission unit configured for emitting a multi-channel signal multiplexing a plurality of transmission channels, wherein each transmission channel is modulated with a symbol of the mapped symbol vector ( U t V t ).
Product comprising a progressive power spectacle lens or a representation which is situated on a data medium in the form of computer-readable data and is of the progressive power spectacle lens with instructions for the production thereof by way of an additive method, wherein the progressive power spectacle lens comprises - a front surface and a back surface, and - a spatially varying refractive index, wherein - either (i) the front surface is a progressive surface or (ii) the back surface is a progressive surface characterized in that - in case (i) the front surface embodied as a progressive surface is formed in such a way that the maximum of the absolute value of the mean curvature of the front surface lies in the intermediate corridor or in case (ii) the back surface embodied as a progressive surface is formed in such a way that the minimum of the absolute value of the mean curvature of the back surface lies in the intermediate corridor, wherein, - pursuant to DIN EN ISO 13666:2013-10, section 14.1.25, the intermediate corridor is the region of the progressive power spectacle lens providing clear vision for ranges intermediate between distance and near. - a front surface and a back surface, and - a spatially varying refractive index, wherein - either (i) the front surface is a progressive surface or (ii) the back surface is a progressive surface - in case (i) the front surface embodied as a progressive surface is formed in such a way that the maximum of the absolute value of the mean curvature of the front surface lies in the intermediate corridor or in case (ii) the back surface embodied as a progressive surface is formed in such a way that the minimum of the absolute value of the mean curvature of the back surface lies in the intermediate corridor, wherein, - pursuant to DIN EN ISO 13666:2013-10, section 14.1.25, the intermediate corridor is the region of the progressive power spectacle lens providing clear vision for ranges intermediate between distance and near.
An integumental dissolving needle for delivery of one or more pharmaceutical ingredients , or one or more cosmetic ingredients , wherein the needle houses multi-layer granules, wherein each of the multi-layer granules comprises: micronized pharmaceutical or cosmetic ingredients ; a first layer of coating agent that is configured to be absorbed into an integument, the first coating layer coating the micronized pharmaceutical or cosmetic ingredients ; a micronized pharmaceutical or cosmetic ingredient layer covering the first coating layer; and a second coating layer containing a coating agent that is configured to be absorbed into an integument, the second coating layer covering the micronized pharmaceutical or cosmetic ingredient layer. the needle houses multi-layer granules, wherein each of the multi-layer granules comprises: micronized pharmaceutical or cosmetic ingredients ; a first layer of coating agent that is configured to be absorbed into an integument, the first coating layer coating the micronized pharmaceutical or cosmetic ingredients ; a micronized pharmaceutical or cosmetic ingredient layer covering the first coating layer; and a second coating layer containing a coating agent that is configured to be absorbed into an integument, the second coating layer covering the micronized pharmaceutical or cosmetic ingredient layer. micronized pharmaceutical or cosmetic ingredients ; a first layer of coating agent that is configured to be absorbed into an integument, the first coating layer coating the micronized pharmaceutical or cosmetic ingredients ; a micronized pharmaceutical or cosmetic ingredient layer covering the first coating layer; and a second coating layer containing a coating agent that is configured to be absorbed into an integument, the second coating layer covering the micronized pharmaceutical or cosmetic ingredient layer.
A method for the electrodeposition of aluminum onto a surface of a conductive substrate at a temperature from about 10°C to about 70°C, about 0.5 atm (50.66 kPa) to about 5 atm (506.62 kPa), in an atmosphere comprising oxygen, the method comprising electrodepositing aluminum via electrochemical reduction of an aqueous solution consisting of water, and an aluminum complex, optionally in the presence of a) an electrolyte selected from ammonium acetate or ammonium citrate, or b) polyvinyl alcohol (PVA) or a mixture thereof, the aluminum complex consisting of an aluminum center and ligands; wherein the ligands are at least one of sulfonate ligands and sulfonimide ligands, wherein the at least one sulfonate ligand is selected from sulfonate ligands of the formulae: and wherein the at least one sulfonimide ligand is selected from sulfonimide ligands of the formula:
A microfluidic device for in-process monitoring of cell culture conditions including for example one or more of: cell density; cell viability; secreted proteins; protein analysis; epitope markers; concentrations of metabolites or nutrients and antigenic determinations; the device comprising: a cell inlet path; plural fluid reservoirs in fluid communication with the cell inlet path, a cell analysis area in fluid communication with said path and reservoirs, and a waste storage volume also in fluid communication with the cell analysis area, the device being operable to cause a primary fluid flow along the inlet path to the analysis area, and to selectively cause secondary fluid flow(s) into the inlet path from one or more of the selected reservoirs to combine with the primary fluid flow from the inlet path, in each case for analysis at the cell analysis area, the device being further operable to cause a fluid flow of the primary and any combined secondary flows from the cell analysis area into the waste storage volume, wherein, the cell analysis area includes multiple cell culture analysers for determining multiple said cell culture conditions.
An antisense polynucleotide agent for inhibiting expression of Serpinc1 (AT3), wherein the agent comprises 21 to 50 contiguous nucleotides, wherein at least one of the contiguous nucleotides is a modified nucleotide, and wherein the nucleotide sequence of the agent comprises the nucleotide sequence 5' - TTGGAATACATGGCCGGCTAA - 3' (SEQ ID NO:206).
A method for manufacturing a block of an infrastructure of a feeder for a glassmaking furnace comprising an infrastructure comprising a block self-cast in situ and sintered in situ, said method comprising the following steps: a) preparation of a self-castable unshaped product, activated and degassed under partial vacuum, b) preparation, at the place where said block is intended to be used, of a mold corresponding to the shape of said block, c) bottom feed of the mold, with removal of bubbles located at the surface of said self-castable unshaped product, activated, degassed and introduced into said mold, corresponding to the surface of said block intended to come into contact with molten glass; d) hardening of said self-castable unshaped product, activated, degassed and introduced into said mold in order to form a preform; e) optionally, mold release of said preform; f) heating-up in order to dry and sinter said preform. a) preparation of a self-castable unshaped product, activated and degassed under partial vacuum, b) preparation, at the place where said block is intended to be used, of a mold corresponding to the shape of said block, c) bottom feed of the mold, with removal of bubbles located at the surface of said self-castable unshaped product, activated, degassed and introduced into said mold, corresponding to the surface of said block intended to come into contact with molten glass; d) hardening of said self-castable unshaped product, activated, degassed and introduced into said mold in order to form a preform; e) optionally, mold release of said preform; f) heating-up in order to dry and sinter said preform.
A personal ventilation device comprising: a first duct segment and a second duct segment both held by a support structure that is configured to be mounted on a wearer of the personal ventilation device; and a first nozzle mounted to the first duct segment and a second nozzle mounted to the second duct segment, wherein the first and second nozzles are configured to be disposed proximate to opposite sides of the midsagittal plane of the face of the wearer from one another, and wherein the device is configured so that the first nozzle directs airflow from the first duct segment across the face of the wearer to form a control volume for a breathing space of the wearer, and the second nozzle draws the airflow that is emitted from the first nozzle into the second duct to collect used air and enable a unidirectional flow direction across the midsagittal plane of the face of the wearer. a first duct segment and a second duct segment both held by a support structure that is configured to be mounted on a wearer of the personal ventilation device; and a first nozzle mounted to the first duct segment and a second nozzle mounted to the second duct segment, wherein the first and second nozzles are configured to be disposed proximate to opposite sides of the midsagittal plane of the face of the wearer from one another, and wherein the device is configured so that the first nozzle directs airflow from the first duct segment across the face of the wearer to form a control volume for a breathing space of the wearer, and the second nozzle draws the airflow that is emitted from the first nozzle into the second duct to collect used air and enable a unidirectional flow direction across the midsagittal plane of the face of the wearer.
Break analysis method for analysing breaks in a vehicle glazing panel, the method comprising: capturing an image of a break in a vehicle glazing panel; processing the image of the break; wherein the method is characterized in that the processing of the image of the break comprises the steps of [A], [B], [C] : [A] identifying a centre of the break and one or more legs of the break; [B] generating a scaling factor indicating the relative length of the one or more legs of the break compared to the size of the centre of the break; and estimating the actual length of the one or more legs using the scaling factor; [C] wherein estimating the actual length of the one or more legs of the break comprises multiplying the scaling factor by a predetermined value. capturing an image of a break in a vehicle glazing panel; processing the image of the break; wherein the method is characterized in that the processing of the image of the break comprises the steps of [A], [B], [C] : [A] identifying a centre of the break and one or more legs of the break; [B] generating a scaling factor indicating the relative length of the one or more legs of the break compared to the size of the centre of the break; and estimating the actual length of the one or more legs using the scaling factor; [C] wherein estimating the actual length of the one or more legs of the break comprises multiplying the scaling factor by a predetermined value. [A] identifying a centre of the break and one or more legs of the break; [B] generating a scaling factor indicating the relative length of the one or more legs of the break compared to the size of the centre of the break; and estimating the actual length of the one or more legs using the scaling factor; [C] wherein estimating the actual length of the one or more legs of the break comprises multiplying the scaling factor by a predetermined value.
Line-guiding system for a vehicle, the line-guiding system having a line-guiding unit for guiding lines, cables, hoses or the like in the line-guiding unit , which is formed by links connected to one another in an articulated manner, the line-guiding unit having a stationary end and a movable end , the line-guiding unit having a first run, a curved region with a radius of curvature and a second run, which are formed by the links , the line-guiding unit being stretched in the closed state of a sliding door of the vehicle, and the line-guiding unit having at at least one end an adjacent arcuate end section , the links of which have a rearward radius of curvature, characterized in that the links in the arcuate end section are mounted so as to be rotated, so that in the deflected state of the links, a curve is formed, the curvature of which is the reverse of the curve of the section.
A membrane separating system comprising: a pretreatment device for membrane separation comprising: a honeycomb structure having porous partition walls with which a plurality of cells extending from one end surface to the other end surface are formed to become through channels of a fluid; and a storage container in which the honeycomb structure is stored and which has an inflow port and an outflow port of the fluid, wherein the partition walls include an adsorbent as a main component, a membrane-like adsorbent is disposed on the surfaces of the partition walls, or the partition walls include the adsorbent as the main component and the membrane-like adsorbent is disposed on the surfaces of the partition walls; and a membrane separating device which is disposed on a downstream side of the pretreatment device for membrane separation and which includes a separation membrane, wherein the adsorbent of the pretreatment device for membrane separation is the same material as the separation membrane of the membrane separating device. a honeycomb structure having porous partition walls with which a plurality of cells extending from one end surface to the other end surface are formed to become through channels of a fluid; and a storage container in which the honeycomb structure is stored and which has an inflow port and an outflow port of the fluid, wherein the partition walls include an adsorbent as a main component, a membrane-like adsorbent is disposed on the surfaces of the partition walls, or the partition walls include the adsorbent as the main component and the membrane-like adsorbent is disposed on the surfaces of the partition walls; and a membrane separating device which is disposed on a downstream side of the pretreatment device for membrane separation and which includes a separation membrane, wherein the adsorbent of the pretreatment device for membrane separation is the same material as the separation membrane of the membrane separating device.
An endoscopic system comprising: an endoscope comprising an elongate body having a proximal end and a distal end and a working channel disposed within the elongate body; an endoscopic hood coupled to the distal end of the endoscope, the endoscopic hood comprising: a first portion that comprises a proximal end , a distal end , and first and second lumens extending therebetween, wherein the first lumen communicates with the working channel of the endoscope; a second portion extending from the distal end of the first portion, said second portion comprising a wall and defining a working area adjacent a surface of the wall and the first lumen; and a support member extending into the first lumen , wherein the support member defines an aperture having a non-circular cross-section; a first shaft having a proximal end and a distal end disposed within the working channel and the first lumen , wherein the aperture of the support member is configured to slidably receive the first shaft ; and a second shaft having a proximal end and a distal end disposed alongside the elongate body and extending through the second lumen , wherein the second shaft is slidably and rotationally disposed within the second lumen . an endoscope comprising an elongate body having a proximal end and a distal end and a working channel disposed within the elongate body; an endoscopic hood coupled to the distal end of the endoscope, the endoscopic hood comprising: a first portion that comprises a proximal end , a distal end , and first and second lumens extending therebetween, wherein the first lumen communicates with the working channel of the endoscope; a second portion extending from the distal end of the first portion, said second portion comprising a wall and defining a working area adjacent a surface of the wall and the first lumen; and a support member extending into the first lumen , wherein the support member defines an aperture having a non-circular cross-section; a first portion that comprises a proximal end , a distal end , and first and second lumens extending therebetween, wherein the first lumen communicates with the working channel of the endoscope; a second portion extending from the distal end of the first portion, said second portion comprising a wall and defining a working area adjacent a surface of the wall and the first lumen; and a support member extending into the first lumen , wherein the support member defines an aperture having a non-circular cross-section; a first shaft having a proximal end and a distal end disposed within the working channel and the first lumen , wherein the aperture of the support member is configured to slidably receive the first shaft ; and a second shaft having a proximal end and a distal end disposed alongside the elongate body and extending through the second lumen , wherein the second shaft is slidably and rotationally disposed within the second lumen .