mhurhangee/ep-ind-claims huggingface dataset:
A multi-chamber storing container, especially made of an airtight composite material, or made of plastic sheet or metal foil or the like, formed of a multi-chamber storing container sleeve, wherein the sleeve is a sleeve injection-molded from plastic, or is suitably formed of a blank cut to form a multi-chamber storing container sleeve, and is especially formed by means of the permanent and airtight connection of a connecting tab, by means of a sealing edge, connected to the blank cut, and wherein the blank cut provided for this purpose is provided with a plurality of suitably attached bending lines (19, 20, 21, 22), or wherein the sleeve injection-molded from plastic has the bending lines (19, 20, 21, 22) integrated therein, wherein the multi-chamber storing container sleeve is bent along the bending lines (20, 21) to form two open portions (29, 30), the bottoms of which are each formed of a second gable and a third gable, and wherein the formation thereof is forced by an inwardly performed folding operation of a portion, a folded supplementary chamber and a transition portion being formed between the second gable and the third gable, and wherein the open portions and, from which a mixing chamber and a receiving chamber will be formed, are oriented with their openings and facing upwards, and are fixed in this position, for example by means of a gripper and/or on a fixing tab, and these portions (29, 30) will each be appropriately filled by means of a first product and by means of a second product, and wherein the mixing chamber is subsequently air-tightly and permanently closed by forming a first gable and a withdrawal spout, whereas the receiving chamber is likewise air-tightly and permanently closed by means of formation of a fourth gable and a sealing edge.
A fluid flow assembly, comprising: a conductive central element disposed within a non-conductive element; the non-conductive element being characterized as framing the periphery of the conductive central element and the elements together defining a substantially planar surface when engaged with one another; each of the conductive central element and the non-conductive element comprises flow channels which, when taken together, form a flow pattern on the substantially planar surface, wherein the flow pattern comprises an interdigitated flow pattern; and wherein the flow channels are restricted, terminated, or both restricted and terminated at or within the non-conductive element. a conductive central element disposed within a non-conductive element; the non-conductive element being characterized as framing the periphery of the conductive central element and the elements together defining a substantially planar surface when engaged with one another; each of the conductive central element and the non-conductive element comprises flow channels which, when taken together, form a flow pattern on the substantially planar surface, wherein the flow pattern comprises an interdigitated flow pattern; and wherein the flow channels are restricted, terminated, or both restricted and terminated at or within the non-conductive element.
A friction welding method, in which one member is brought into contact with another member and slides in a state that a load is applied substantially perpendicularly to an interface (6, 12) to be welded, comprising; a first step of setting the pressure (P 1) calculated from the area of the interface to be welded and the load to be equal to or higher than the yield stress of the one member and/or the other member and equal to or lower than the tensile strength at a desired welding temperature, and performing the friction welding at the set pressure (P 1), and characterised by a second step of reducing the load, and performing the friction welding under the reduced load, wherein the first step and the second step are carried out successively while continuously performing the friction welding. a first step of setting the pressure (P 1) calculated from the area of the interface to be welded and the load to be equal to or higher than the yield stress of the one member and/or the other member and equal to or lower than the tensile strength at a desired welding temperature, and performing the friction welding at the set pressure (P 1), and characterised by a second step of reducing the load, and performing the friction welding under the reduced load, wherein the first step and the second step are carried out successively while continuously performing the friction welding.
A method for providing an ion-implanted semiconductor substrate comprising: providing a semiconductor substrate having coated thereon a relief image made a of chemically-amplified positive-acting photoresist composition, wherein the photoresist composition comprises (i) a resin comprising photoacid-labile groups, which comprises less than 5 wt% of phenyl or phenolic groups and in which less than 40 % of the total resin repeating units are non-aromatic, (ii) a photoacide generator component and (iii) a phenolic resin component which is a homopolymer comprising repeating units of a phenolic group; and applying ions to the substrate. providing a semiconductor substrate having coated thereon a relief image made a of chemically-amplified positive-acting photoresist composition, wherein the photoresist composition comprises (i) a resin comprising photoacid-labile groups, which comprises less than 5 wt% of phenyl or phenolic groups and in which less than 40 % of the total resin repeating units are non-aromatic, (ii) a photoacide generator component and (iii) a phenolic resin component which is a homopolymer comprising repeating units of a phenolic group; and applying ions to the substrate.
A mixing system comprising: a flexible bag for containing a fluid; a magnetic agitator disposable in the bag for mixing the fluid, the agitator configured to rotate about an axis of rotation when magnetically coupled to an external magnetic drive system; and a bag support structure including a bag support structure wall that at least partially surrounds, supports or contains the bag during use, wherein the flexible bag is configured to be supported by said bag support structure and the flexible bag is further adapted for deformation by a shaped portion of the bag support structure to define a receiverless retainer for the agitator within the bag when the agitator is magnetically coupled to the external magnetic drive system, characterized in that the shaped portion of the bag support structure is at least one of a ring-like protuberance or protrusion, or a groove for retaining the flexible bag and the fluid-agitating agitator. a flexible bag for containing a fluid; a magnetic agitator disposable in the bag for mixing the fluid, the agitator configured to rotate about an axis of rotation when magnetically coupled to an external magnetic drive system; and a bag support structure including a bag support structure wall that at least partially surrounds, supports or contains the bag during use, wherein the flexible bag is configured to be supported by said bag support structure and the flexible bag is further adapted for deformation by a shaped portion of the bag support structure to define a receiverless retainer for the agitator within the bag when the agitator is magnetically coupled to the external magnetic drive system, characterized in that the shaped portion of the bag support structure is at least one of a ring-like protuberance or protrusion, or a groove for retaining the flexible bag and the fluid-agitating agitator.
A method of diagnosing or monitoring a person at risk of developing or having Alzheimer's disease comprising measuring the concentration or relative level of the biomarkers Afamin and Alpha-1 antichymotrypsin and optionally at least one additional biomarker selected from Alpha-2-macroglobulin, Apolipoprotein B100, complement C3, Serine threonine kinase TBK-1, vitamin D binding protein, alpha-1-B glycoprotein, hemopexin, serum albumin, ceruloplasmin, alpha-2-antiplasmin, apolipoprotein A1, complement factor H, IgG, IgG Fe binding protein, hornerin, fibrinogen, and complement C5 in a fluid sample obtained from a person suspected of having or at risk of having AD; and establishing the significance of the concentrations or relative levels.
Use of a polynucleotide for the manufacturing of a recombinant vector plasmid intended for the production, by cotransfection of transcomplementation plasmids, of recombinant lentiviral particles devoid of lentiviral genes and intended for the transduction in eukaryote target cells of a nucleotide sequence of interest, said polynucleotide being the nuclear import determinant in said particles, said polynucleotide being derived from a lentivirus and made up of a cis-active central initiation region (cPPT) containing at least 10 nucleotides, a cis-active termination region containing at least 10 nucleotides, and an internal chain of nucleotides framed by these two regions, said CTS region and said internal chain of nucleotides making up a sequence having a size of 80 to 120 nucleotides, said polynucleotide being able to form a triplex DNA structure upon retrotranscription of the genome of said particles in the eukaryote target cell, said plasmid being devoid of lentiviral genes and comprising a recombinant nucleotide sequence comprising: - said nucleotide sequence of interest placed under the control of transcription and expression regulation signals; - retrotranscription, expression and encapsidation regulation signals derived from a lentivirus and - said polynucleotide, said cis-active regions being inserted in a functional orientation with said regulation signals derived from a lentivirus. - said nucleotide sequence of interest placed under the control of transcription and expression regulation signals; - retrotranscription, expression and encapsidation regulation signals derived from a lentivirus and - said polynucleotide, said cis-active regions being inserted in a functional orientation with said regulation signals derived from a lentivirus.
A movement information processing method, comprising: measuring, by a user equipment, a characteristic parameter of a cell to be measured; obtaining, by the user equipment, movement information of the user equipment according to a change of the characteristic parameter within a predetermined time; and sending, by the user equipment, the movement information to an access network device, so that the access network device executes a movement-related operation according to the movement information, wherein the movement information and the movement-related operation relate to a handover operation, characterized in that after the sending, by the user equipment, the movement information to an access network device, the method further comprises: during handover of the user equipment, sending, by the access network device, the movement information to a target access network device of the handover, so that the target access network device executes a movement-related operation according to the movement information. measuring, by a user equipment, a characteristic parameter of a cell to be measured; obtaining, by the user equipment, movement information of the user equipment according to a change of the characteristic parameter within a predetermined time; and sending, by the user equipment, the movement information to an access network device, so that the access network device executes a movement-related operation according to the movement information, wherein the movement information and the movement-related operation relate to a handover operation, characterized in that after the sending, by the user equipment, the movement information to an access network device, the method further comprises: during handover of the user equipment, sending, by the access network device, the movement information to a target access network device of the handover, so that the target access network device executes a movement-related operation according to the movement information. during handover of the user equipment, sending, by the access network device, the movement information to a target access network device of the handover, so that the target access network device executes a movement-related operation according to the movement information.
A compressor module (47, 49) for a turbomachine, comprising: - a substantially axisymmetric central hub; - an outer ring, coaxial with the central hub; and - an annular row of struts (46, 48) extending from the central hub to the outer ring, each strut (46, 48) having a fixed upstream portion and a pivotable downstream flap, the struts (46, 48) defining inter-strut spaces between two circumferentially adjacent struts (46, 48); and an annular row of variable stator vanes (37, 39, 45) extending from the central hub to the outer ring, the variable stator vanes (37, 39, 45) being disposed at least partially in the inter-strut spaces. - a substantially axisymmetric central hub; - an outer ring, coaxial with the central hub; and - an annular row of struts (46, 48) extending from the central hub to the outer ring, each strut (46, 48) having a fixed upstream portion and a pivotable downstream flap, the struts (46, 48) defining inter-strut spaces between two circumferentially adjacent struts (46, 48); and
A system for guiding arm setup in a surgical robotic system using augmented reality, comprising: a camera, configured to capture a live arm setup video of a user (106, 306) setting up a robotic arm (110, 310) in a surgical robotic system; a display; and a processor, configured to: receive the live arm setup video captured by the camera; render a virtual robotic arm (311, 511, 512) in a target pose that includes each of a plurality of members of the virtual robotic arm, onto the live arm setup video, resulting in an augmented live video for guiding arm setup; and stream the augmented live video as a mirror image on the display facing substantially in the same direction as the camera, to visually guide the user through arm setup to the target pose; and indicate on the display when each of a plurality of members of a robotic arm matches the target pose of the virtual robotic arm, within a tolerance. a camera, configured to capture a live arm setup video of a user (106, 306) setting up a robotic arm (110, 310) in a surgical robotic system; a display; and a processor, configured to: receive the live arm setup video captured by the camera; render a virtual robotic arm (311, 511, 512) in a target pose that includes each of a plurality of members of the virtual robotic arm, onto the live arm setup video, resulting in an augmented live video for guiding arm setup; and stream the augmented live video as a mirror image on the display facing substantially in the same direction as the camera, to visually guide the user through arm setup to the target pose; and indicate on the display when each of a plurality of members of a robotic arm matches the target pose of the virtual robotic arm, within a tolerance. receive the live arm setup video captured by the camera; render a virtual robotic arm (311, 511, 512) in a target pose that includes each of a plurality of members of the virtual robotic arm, onto the live arm setup video, resulting in an augmented live video for guiding arm setup; and stream the augmented live video as a mirror image on the display facing substantially in the same direction as the camera, to visually guide the user through arm setup to the target pose; and indicate on the display when each of a plurality of members of a robotic arm matches the target pose of the virtual robotic arm, within a tolerance.
A computer-implemented method of verifying an integrated circuit design, comprising: receiving a layout or portion thereof that defines at least two objects (10, 12) to be created with a photolithographic process; and simulating how the objects will be printed under a number of varying lithographic process conditions, characterised by: producing PV-bands for the objects from said simulation by performing one or more Boolean operations for each of the respective objects, the PV-bands defining the minimum and maximum expected edge displacement of the objects that may print on a wafer under the varying lithographic process conditions; storing data representing the PV-bands in a computer-readable storage medium; and analyzing the data representing the PV-bands with one or more design rules to verify the design. receiving a layout or portion thereof that defines at least two objects (10, 12) to be created with a photolithographic process; and simulating how the objects will be printed under a number of varying lithographic process conditions, producing PV-bands for the objects from said simulation by performing one or more Boolean operations for each of the respective objects, the PV-bands defining the minimum and maximum expected edge displacement of the objects that may print on a wafer under the varying lithographic process conditions; storing data representing the PV-bands in a computer-readable storage medium; and analyzing the data representing the PV-bands with one or more design rules to verify the design.
A single gauge for a hybrid pressure and flowgauge regulator comprising: first indicia providing an indication of a flow rate of a gas exiting an outlet of the hybrid pressure and flowgauge regulator when the gas exits with a pressure below a gauge threshold pressure; and second indicia providing an indication of a pressure of the gas exiting the outlet of the hybrid pressure and flowgauge regulator when the gas exits with a pressure above the gauge threshold pressure. first indicia providing an indication of a flow rate of a gas exiting an outlet of the hybrid pressure and flowgauge regulator when the gas exits with a pressure below a gauge threshold pressure; and second indicia providing an indication of a pressure of the gas exiting the outlet of the hybrid pressure and flowgauge regulator when the gas exits with a pressure above the gauge threshold pressure.
A method of reading data represented by a marking comprising at least one periodic nanostructure, such as a Laser Induced Periodic Surface Structure (LIPSS), the or each nanostructure comprising a plurality of substantially parallel lines, the marking representing data using a polarisation property of the periodic nanostructure, and the method comprising:- detecting polarised electromagnetic radiation reflected from or transmitted by the nanostructure; and determining the data represented by the making from the detected polarised electromagnetic radiation, wherein:- the method further comprises applying polarised electromagnetic radiation to the nanostructure, and/or the detecting is performed using a polarisation-sensitive detector apparatus (24a,24b) detecting polarised electromagnetic radiation reflected from or transmitted by the nanostructure; and determining the data represented by the making from the detected polarised the method further comprises applying polarised electromagnetic radiation to the nanostructure, and/or the detecting is performed using a polarisation-sensitive detector apparatus (24a,24b)
A method of improving a flow rate of produced fluid in a well, the well comprising a production flow line and an injection line, the production flow line comprising a production bore of the well, the injection line being connected downhole to the production flow line at a first, downhole location and the well having a second location in the production flow line downstream of the first location, gas-lift gas being injected into the production flow line at the downhole location from the injection line, the well comprising a control unit that may be adjusted to affect the flow rate of produced fluid from the well, wherein the control unit is a valve for adjusting a rate of injection of the gas-lift gas, the method comprising the steps of: - injecting a tracer substance from the injection line into the production flow line at the first location, wherein the tracer is injected at a known rate of injection; - obtaining a first measurement of the tracer substance in the produced fluid at the second location by use of a means for obtaining said measurement while producing fluid using the first setting of the control unit; - using the first measurement of the tracer substance to determine a first parameter of the flow of the produced fluid; - adjusting the control unit to a second setting; - obtaining a second measurement of the tracer substance in the produced fluid at the second location by use of the means for obtaining said measurement while producing fluid using the second setting of the control unit; - using the second measurement of the tracer substance to determine a second parameter of the flow of the produced fluid; and - comparing the first parameter to the second parameter to determine an effect of changing the setting of the control unit. - injecting a tracer substance from the injection line into the production flow line at the first location, wherein the tracer is injected at a known rate of injection; - obtaining a first measurement of the tracer substance in the produced fluid at the second location by use of a means for obtaining said measurement while producing fluid using the first setting of the control unit; - using the first measurement of the tracer substance to determine a first parameter of the flow of the produced fluid; - adjusting the control unit to a second setting; - obtaining a second measurement of the tracer substance in the produced fluid at the second location by use of the means for obtaining said measurement while producing fluid using the second setting of the control unit; - using the second measurement of the tracer substance to determine a second parameter of the flow of the produced fluid; and - comparing the first parameter to the second parameter to determine an effect of changing the setting of the control unit.
A method for cell reselection performed by a user equipment, UE, in a connected mode, the method comprising: measuring signal strength of neighboring cells in one or more inter-radio access technology, inter-RAT, frequencies while camped on a serving cell in the connected mode; determining power class, PC, capability of the neighboring cells based on a band of the one or more inter-RAT frequencies; and reselecting to a neighboring cell using the determined PC capability when the measured signal strength of the neighboring cell meets a pre-defined reselection threshold for the determined PC capability of the neighboring cell, wherein the determining the PC capability of the neighboring cells comprises determining PCs that the neighboring cells support. measuring signal strength of neighboring cells in one or more inter-radio access technology, inter-RAT, frequencies while camped on a serving cell in the connected mode; determining power class, PC, capability of the neighboring cells based on a band of the one or more inter-RAT frequencies; and reselecting to a neighboring cell using the determined PC capability when the measured signal strength of the neighboring cell meets a pre-defined reselection threshold for the determined PC capability of the neighboring cell, wherein the determining the PC capability of the neighboring cells comprises determining PCs that the neighboring cells support.
Glibenclamide for use in a method of preventing, reducing, and/or treating endothelial intimal damage from mechanical stimulation of endothelial cells in a blood vessel of an individual.