mhurhangee/patent-ind-claim-en huggingface dataset:
Method for separating different types of plastic from or in a mixture of materials in the context of recycling plastic materials, comprising the following steps: a) Feeding the material mixture , b) Melting at least a part of the material mixture , wherein several or all types of plastic are contained in the melted part of the material mixture , c) Separating one or more types of plastic contained in the molten part of the material mixture from the material mixture on the basis of the specific melt viscosity of the respective molten type of plastic , characterized in that at least the molten part of the material mixture is passed successively over different filter stages , each filter stage is designed to separate melted and non-melted or higher viscosity parts of the material mixture in a specific viscosity range, wherein in each filter stage the respective type of plastic with the highest melt viscosity is separated from the melted part of the material mixture . a) Feeding the material mixture , b) Melting at least a part of the material mixture , wherein several or all types of plastic are contained in the melted part of the material mixture , c) Separating one or more types of plastic contained in the molten part of the material mixture from the material mixture on the basis of the specific melt viscosity of the respective molten type of plastic ,
Soothing composition for non-human mammals comprising between 1% and 50% w/w of at least one fatty acid comprising between 5 and 22 carbon atoms and between 0.01% and 5% w/w of nepetalactone, characterised in that said fatty acid or acids and said nepetalactone are in solution in a solvent selected from among alcohols, pure or in a mixture with water, aliphatic paraffins, ether glycols, ether polyglycols or a mixture of at least two of them.
An inorganic light-emitting diode display, the display comprising: a plurality of inorganic light-emitting diodes (5002a-5002f, 5102, 5202, 5300) assembled in an array on a display substrate non-native to the plurality of light-emitting diodes, wherein each light-emitting diode of the array comprises a first metal terminal on a first side of the corresponding light-emitting diode horizontally separated from a second metal terminal on the first side of the same light-emitting diode by a horizontal distance, wherein the horizontal distance is in a direction parallel to a surface of the display substrate on which the light-emitting diodes are assembled; and electrical interconnections (5004a-5004c, 5104, 5108a,b, 5204, 5208, 5450, 5452) electrically connected to the first metal terminal and the second metal terminal of each of the plurality of light-emitting diodes, wherein the electrical interconnections are in a single lithographically defined metal level, the display characterised in that the horizontal distance is from 100 nm to 20 μm, each of the plurality of light-emitting diodes has a width and/or length from 2 to 5 μm, 5 to 10 μm, 10 to 20 μm, or 20 to 50 μm, and for each light-emitting diode of the plurality of light-emitting diodes, the corresponding first and second metal terminals cover at least half, two-thirds, or three-quarters of the lateral footprint of the corresponding light-emitting diode. a plurality of inorganic light-emitting diodes (5002a-5002f, 5102, 5202, 5300) assembled in an array on a display substrate non-native to the plurality of light-emitting diodes, wherein each light-emitting diode of the array comprises a first metal terminal on a first side of the corresponding light-emitting diode horizontally separated from a second metal terminal on the first side of the same light-emitting diode by a horizontal distance, wherein the horizontal distance is in a direction parallel to a surface of the display substrate on which the light-emitting diodes are assembled; and electrical interconnections (5004a-5004c, 5104, 5108a,b, 5204, 5208, 5450, 5452) electrically connected to the first metal terminal and the second metal terminal of each of the plurality of light-emitting diodes, wherein the electrical interconnections are in a single lithographically defined metal level, the display characterised in that the horizontal distance is from 100 nm to 20 μm, each of the plurality of light-emitting diodes has a width and/or length from 2 to 5 μm, 5 to 10 μm, 10 to 20 μm, or 20 to 50 μm, and for each light-emitting diode of the plurality of light-emitting diodes, the corresponding first and second metal terminals cover at least half, two-thirds, or three-quarters of the lateral footprint of the corresponding light-emitting diode.
Method of making a sleeve for covering a receptacle , from a strip of flexible tubular material, wherein the sleeve has a given length measured from a first end to a second end, being measured in the longitudinal direction of the strip, the method comprising: puncturing the sleeve to form a puncture being spaced apart from the first end and from the second end, characterised in that said puncturing the sleeve is puncturing an open region of the sleeve. puncturing the sleeve to form a puncture being spaced apart from the first end and from the second end, characterised in that said puncturing the sleeve is puncturing an open region of the sleeve.
A computer-implemented method, comprising: receiving , by one or more processors, one or more requests to simultaneously stream video associated with a first attendee for a high-resolution display region at a client device and video associated with a second attendee for a low-resolution display region at the client device; generating , by the one or more processors in response to the one or more requests, a first video stream associated with the first attendee at a first resolution corresponding to the high-resolution display region; identifying , by the one or more processors, a highest resolution previously requested by the client device for one or more previous video streams; determining , by the one or more processors based on the highest resolution previously requested, a second resolution for a second video stream associated with the second attendee, wherein the second resolution is larger than a requested resolution for the low-resolution display region; determining , by the one or more processors, a video quality for the second video stream at the second resolution based at least in part on maximizing use of a bandwidth associated with the low-resolution display region; and generating , by the one or more processors in response to the one or more requests, the second video stream at the second resolution and the determined video quality for the client device. receiving , by one or more processors, one or more requests to simultaneously stream video associated with a first attendee for a high-resolution display region at a client device and video associated with a second attendee for a low-resolution display region at the client device; generating , by the one or more processors in response to the one or more requests, a first video stream associated with the first attendee at a first resolution corresponding to the high-resolution display region; identifying , by the one or more processors, a highest resolution previously requested by the client device for one or more previous video streams; determining , by the one or more processors based on the highest resolution previously requested, a second resolution for a second video stream associated with the second attendee, wherein the second resolution is larger than a requested resolution for the low-resolution display region; determining , by the one or more processors, a video quality for the second video stream at the second resolution based at least in part on maximizing use of a bandwidth associated with the low-resolution display region; and generating , by the one or more processors in response to the one or more requests, the second video stream at the second resolution and the determined video quality for the client device.
A process for producing a composition comprising the following: A) an ethylene-based polymer that has a density greater than, or equal to, 0.940 g/cc and a melt index of from greater than, or equal to, 2.0 g/10 min to less than, or equal to, 70.0 g/10 min, and B) an ethylene homopolymer, formed by polymerizing a reaction mixture comprising ethylene, using a free-radical, high pressure polymerization process; and wherein component (B) is polymerized in a polymerization configuration comprising at least one reactor, at least one separator, and at least one pelletizer, and wherein component (A) is added to a molten stream of component (B), after component (B) exits the separator and before component (B) is solidified in the pelletizer. A) an ethylene-based polymer that has a density greater than, or equal to, 0.940 g/cc and a melt index of from greater than, or equal to, 2.0 g/10 min to less than, or equal to, 70.0 g/10 min, and B) an ethylene homopolymer, formed by polymerizing a reaction mixture comprising ethylene, using a free-radical, high pressure polymerization process; and wherein component (B) is polymerized in a polymerization configuration comprising at least one reactor, at least one separator, and at least one pelletizer, and wherein component (A) is added to a molten stream of component (B), after component (B) exits the separator and before component (B) is solidified in the pelletizer. wherein component (B) is polymerized in a polymerization configuration comprising at least one reactor, at least one separator, and at least one pelletizer, and wherein component (A) is added to a molten stream of component (B), after component (B) exits the separator and before component (B) is solidified in the pelletizer.
Use of an aqueous bio-catalytic composition in the manufacture of paper, the aqueous bio-catalytic composition comprising a fermentation supernatant, which comprises micronutrients, from a yeast culture containing no active enzymes, and one or more non-ionic surfactants, wherein the bio-catalytic composition lacks any active enzymes, and wherein the yeast culture is a Saccharomyces cerevisiae culture.
An operation method of a first communication node located in a vehicle supporting a vehicle-to-everything, V2X, communication system, the operation method comprising: receiving, by the first communication node, control information including resource allocation information from a third communication node (S1004); receiving, by the first communication node, first data from the third communication node (S1004) through a radio resource indicated by the resource allocation information included in the control information; generating, by the first communication node, sidelink control information, SCI, (S1005) including reception configuration information indicating the radio resource used for transmission of the first data of the third communication node based on the resource allocation information; and transmitting, by the first communication node, the SCI to a second communication node (S1006) wherein the radio resource indicated by the reception configuration information is used for communications between the first communication node and the third communication node, and the radio resource indicated by the reception configuration information is not used for communications between the first communication node and the second communication node. receiving, by the first communication node, control information including resource allocation information from a third communication node (S1004); receiving, by the first communication node, first data from the third communication node (S1004) through a radio resource indicated by the resource allocation information included in the control information; generating, by the first communication node, sidelink control information, SCI, (S1005) including reception configuration information indicating the radio resource used for transmission of the first data of the third communication node based on the resource allocation information; and transmitting, by the first communication node, the SCI to a second communication node (S1006) wherein the radio resource indicated by the reception configuration information is used for communications between the first communication node and the third communication node, and the radio resource indicated by the reception configuration information is not used for communications between the first communication node and the second communication node.
A meniscus regeneration substrate capable of promoting meniscus regeneration when used to fill a defect of a meniscus of a knee joint in meniscus regeneration, the meniscus regeneration substrate having a structure in which a sponge layer containing a bioabsorbable material having a lower decomposition rate than polyglycolide, a non-woven fabric layer containing polyglycolide, and a sponge layer containing a bioabsorbable material having a lower decomposition rate than polyglycolide are integrated in the stated order, the non-woven fabric layer having a 50% compression stress of 0.5 MPa or higher and a thickness of 2 mm or more, wherein the non-woven fabric layer has a density of 400 mg/cm 3 or higher, wherein the non-woven fabric layer contains a non-woven fabric having an average fiber size from 25 denier to 40 denier, wherein the non-woven fabric layer is sewn with a sewing machine using yarn containing a bioabsorbable material, and the pitch in the sewing with a sewing machine is 5 mm or less. the meniscus regeneration substrate having a structure in which a sponge layer containing a bioabsorbable material having a lower decomposition rate than polyglycolide, a non-woven fabric layer containing polyglycolide, and a sponge layer containing a bioabsorbable material having a lower decomposition rate than polyglycolide are integrated in the stated order, the non-woven fabric layer having a 50% compression stress of 0.5 MPa or higher and a thickness of 2 mm or more, wherein the non-woven fabric layer has a density of 400 mg/cm 3 or higher, wherein the non-woven fabric layer contains a non-woven fabric having an average fiber size from 25 denier to 40 denier, wherein the non-woven fabric layer is sewn with a sewing machine using yarn containing a bioabsorbable material, and the pitch in the sewing with a sewing machine is 5 mm or less.
A system comprising an electronic equipment (b4) and a protective cover (b2), wherein: the electronic equipment comprises a screen and a Hall sensor, the protective cover (b2) is configured, when closed, to cover the screen of the electronic equipment (b4), and is provided with a magnet body comprising magnets (b22, b24), characterized in that said magnets consist of a first magnet (b22) and a second magnet (b24) which are arranged in the protective cover such that: when the protective cover is closed and thus covers the screen, the projections of the first and second magnets on the screen are aligned with the Hall sensor (H), and are symmetrically located at both sides of the Hall sensor respectively, wherein magnetic field lines of the first and second magnets pass through the Hall sensor when the protective cover is closed and thus covers the screen, and when the protective cover moves on the screen in a direction parallel to a line (L) formed between the first magnet and second magnet the Hall sensor is still able to be switched under the action of one of the first and second magnets. the electronic equipment comprises a screen and a Hall sensor, the protective cover (b2) is configured, when closed, to cover the screen of the electronic equipment (b4), and is provided with a magnet body comprising magnets (b22, b24), characterized in that said magnets consist of a first magnet (b22) and a second magnet (b24) which are arranged in the protective cover such that: when the protective cover is closed and thus covers the screen, the projections of the first and second magnets on the screen are aligned with the Hall sensor (H), and are symmetrically located at both sides of the Hall sensor respectively, wherein magnetic field lines of the first and second magnets pass through the Hall sensor when the protective cover is closed and thus covers the screen, and when the protective cover moves on the screen in a direction parallel to a line (L) formed between the first magnet and second magnet the Hall sensor is still able to be switched under the action of one of the first and second magnets.
A thermally conductive resin composition having a specific gravity of 1.4-2.0 and an In-Plane thermal conductivity of 1 W/(m·K) or higher, and containing at least (A) 30-90% by mass of a thermoplastic resin, (B) 9-69% by mass of an inorganic filler having a thermal conductivity of 1 W/(m·K) or higher, and (C) 0.05-10% by mass of an organic crystallization accelerator, wherein the thermoplastic resin (A) is a polyester resin which is one or more kinds selected from the group consisting of polybutylene terephthalate, polyethylene terephthalate, and polyester-polyether copolymer, and the inorganic filler (B) is a flaked graphite having a volume average particle diameter of from 10 to 700 μm, a fixed carbon content of 98% by mass or more, and an aspect ratio of 21 or more, the organic crystallization accelerator (C) is an ester compound having a number average molecular weight of from 200 to 10,000. wherein the thermoplastic resin (A) is a polyester resin which is one or more kinds selected from the group consisting of polybutylene terephthalate, polyethylene terephthalate, and polyester-polyether copolymer, and the inorganic filler (B) is a flaked graphite having a volume average particle diameter of from 10 to 700 μm, a fixed carbon content of 98% by mass or more, and an aspect ratio of 21 or more, the organic crystallization accelerator (C) is an ester compound having a number average molecular weight of from 200 to 10,000.
A cannula system for accessing a target site in the body of a patient, said cannula system comprising: a cannula tube having a distal end and a proximal end , and a lumen extending from said proximal end to said distal end , a central longitudinal axis defined by the lumen , and a luminal surface on an inner wall of said cannula tube ; and a light source disposed proximate the proximal end of the cannula tube , said light source configured to project light into the lumen of the cannula tube ; wherein the cannula tube comprises an opaque material, non-transmissive to visible light; characterized in that the luminal surface has an Average Roughness of about 0.2 microns (8 micro-inches) or smoother. a cannula tube having a distal end and a proximal end , and a lumen extending from said proximal end to said distal end , a central longitudinal axis defined by the lumen , and a luminal surface on an inner wall of said cannula tube ; and a light source disposed proximate the proximal end of the cannula tube , said light source configured to project light into the lumen of the cannula tube ; wherein the cannula tube comprises an opaque material, non-transmissive to visible light; characterized in that the luminal surface has an Average Roughness of about 0.2 microns (8 micro-inches) or smoother.
An annular coil for a stator of a rotating electrical machine, the coil comprising a plurality of segment coils in which corresponding ends (T) are electrically connected together, wherein: the corresponding ends (T) are electrically connected together via a plurality of coupling members each electrically connecting the ends (T) of the segment coils ; each of the segment coils is a conductor having an insulating film formed on its surface, and includes a conductor-exposed portion (N) located close to a connection portion between the corresponding segment coils and configured to be brought into contact with a probe of a resistance measurement apparatus; and the conductor is exposed at the end (T) of each of the segment coils ; characterized in that : at least parts of the segment coils are arranged so as to adjoin each other in a radial direction, the annular coil including a plurality of layers each including the ends (T) of the segment coils adjacent to each other in a circumferential direction, the layers being arranged in the radial direction; the conductor-exposed portion (N) is a part of the end (T) of each of the segment coils , which is exposed from the coupling member; and the segment coils are electrically connected together by being fitted to both ends of each of the coupling members from opposite axial sides of each of the coupling members . the corresponding ends (T) are electrically connected together via a plurality of coupling members each electrically connecting the ends (T) of the segment coils ; each of the segment coils is a conductor having an insulating film formed on its surface, and includes a conductor-exposed portion (N) located close to a connection portion between the corresponding segment coils and configured to be brought into contact with a probe of a resistance measurement apparatus; and the conductor is exposed at the end (T) of each of the segment coils ; at least parts of the segment coils are arranged so as to adjoin each other in a radial direction, the annular coil including a plurality of layers each including the ends (T) of the segment coils adjacent to each other in a circumferential direction, the layers being arranged in the radial direction; the conductor-exposed portion (N) is a part of the end (T) of each of the segment coils , which is exposed from the coupling member; and the segment coils are electrically connected together by being fitted to both ends of each of the coupling members from opposite axial sides of each of the coupling members .
A surface bio-contamination assay kit comprising: - a cartridge comprising a swab ; and - a bio-contamination meter designed to removably receive the cartridge after sampling and to measure bio-contamination of the collected sample; characterized in that the surface bio-contamination assay kit further comprises: - a sampler comprising: ∘ a casing designed to be steadily placeable on a surface to be sampled; ∘ a cartridge connection interface arranged in the casing and designed to removably receive the cartridge such that the swab may be come into contact with the surface to be sampled when the casing is placed on the surface to be sampled; and ∘ a cartridge actuator arranged in the casing , coupled with the cartridge connection interface , and operable to cause the cartridge to move along a predetermined sampling path , whereby, when the casing is steadily placed on the surface to be sampled, the swab is caused to wipe on, and collect a sample of, an area of the surface to be sampled. - a cartridge comprising a swab ; and - a bio-contamination meter designed to removably receive the cartridge after sampling and to measure bio-contamination of the collected sample; - a sampler comprising: ∘ a casing designed to be steadily placeable on a surface to be sampled; ∘ a cartridge connection interface arranged in the casing and designed to removably receive the cartridge such that the swab may be come into contact with the surface to be sampled when the casing is placed on the surface to be sampled; and ∘ a cartridge actuator arranged in the casing , coupled with the cartridge connection interface , and operable to cause the cartridge to move along a predetermined sampling path , whereby, when the casing is steadily placed on the surface to be sampled, the swab is caused to wipe on, and collect a sample of, an area of the surface to be sampled. ∘ a casing designed to be steadily placeable on a surface to be sampled; ∘ a cartridge connection interface arranged in the casing and designed to removably receive the cartridge such that the swab may be come into contact with the surface to be sampled when the casing is placed on the surface to be sampled; and ∘ a cartridge actuator arranged in the casing , coupled with the cartridge connection interface , and operable to cause the cartridge to move along a predetermined sampling path , whereby, when the casing is steadily placed on the surface to be sampled, the swab is caused to wipe on, and collect a sample of, an area of the surface to be sampled.