mhurhangee/patent-ind-claim-en huggingface dataset:
An ultra-lightweight shower tray comprising corresponding slopes towards a drain hole and a drain valve housing , wherein the tray is made of a material composed of the following layers, indicated in successive order and taking the visible part of the shower tray as the top layer: i. A coating layer based on an unsaturated polyester resin of isophthalic acid and neopentylglycol , with a thickness of 500 μm; ii. A combined glass fibre layer of woven and non-woven glass fibres wetted with an unsaturated orthophthalic unsaturated polyester resin , with a thickness of 3 mm; iii. A layer of extruded polystyrene pre-milled with shower tray slopes , with a thickness of 23 mm; and iv. A layer of mesh-reinforced extruded polystyrene sheet lining mortar , with a thickness of 4 mm. i. A coating layer based on an unsaturated polyester resin of isophthalic acid and neopentylglycol , with a thickness of 500 μm; ii. A combined glass fibre layer of woven and non-woven glass fibres wetted with an unsaturated orthophthalic unsaturated polyester resin , with a thickness of 3 mm; iii. A layer of extruded polystyrene pre-milled with shower tray slopes , with a thickness of 23 mm; and iv. A layer of mesh-reinforced extruded polystyrene sheet lining mortar , with a thickness of 4 mm.
A system for riserless intervention or abandonment of a subsea well , the system comprising means for lowering and/or retrieval of a wire line tool and equipment from a floating installation to a subsea location, the system comprising: - a Pressure Control Head having an internal through-going bore for receiving a wire line , wherein the Pressure Control Head , once the Pressure Control Head is landed subsea, allows access to the subsea well for the wireline and serves as a barrier by sealing the subsea well during wireline operations when the wire line and wire line tool are run into and out of the subsea well ; - a clamp connected to the Pressure Control Head , - the wire line tool is connected to the wire line , and wherein the clamp is adapted to clamp around and be released from the wire line such that the lowering and retrieval of the Pressure Control Head and the wire line tool are performed using the wire line . - a Pressure Control Head having an internal through-going bore for receiving a wire line , wherein the Pressure Control Head , once the Pressure Control Head is landed subsea, allows access to the subsea well for the wireline and serves as a barrier by sealing the subsea well during wireline operations when the wire line and wire line tool are run into and out of the subsea well ; - a clamp connected to the Pressure Control Head , - the wire line tool is connected to the wire line , and
A method for manufacturing a structure material that comprises a thermoplastic resin, reinforced fibers, and voids, the method comprising: a first process for arranging a structure precursor , which is a mat comprising reinforced fibers and a matrix resin comprising the thermoplastic resin wherein the mat comprising reinforced fibers is impregnated with the resin in advance, in a mold with a surface temperature of 80°C or less; a second process for raising the surface temperature of the mold up to a temperature at which a storage elastic modulus (G') of the structure precursor is less than 1.2 × 10 8 Pa; a third process for lowering the surface temperature of the mold down to a temperature at which the storage elastic modulus (G') of the structure precursor is 1.2 × 10 8 Pa or more; and a fourth process for removing the structure material obtained after end of the third process from the mold , wherein the storage elastic modulus (G') is measured by dynamic viscoelasticity analysis on a 0.5mm thick and 10 mm wide sample under conditions of a temperature raising rate of 5°C / minute, a twisting vibration frequency of 0.5 Hz, and a strain amount of 0.1%. a first process for arranging a structure precursor , which is a mat comprising reinforced fibers and a matrix resin comprising the thermoplastic resin wherein the mat comprising reinforced fibers is impregnated with the resin in advance, in a mold with a surface temperature of 80°C or less; a second process for raising the surface temperature of the mold up to a temperature at which a storage elastic modulus (G') of the structure precursor is less than 1.2 × 10 8 Pa; a third process for lowering the surface temperature of the mold down to a temperature at which the storage elastic modulus (G') of the structure precursor is 1.2 × 10 8 Pa or more; and a fourth process for removing the structure material obtained after end of the third process from the mold , wherein the storage elastic modulus (G') is measured by dynamic viscoelasticity analysis on a 0.5mm thick and 10 mm wide sample under conditions of a temperature raising rate of 5°C / minute, a twisting vibration frequency of 0.5 Hz, and a strain amount of 0.1%.
A light detection and ranging, LiDAR, apparatus comprising: a light source configured to irradiate light onto an object; a light detector comprising a plurality of light detection elements , each configured to individually detect light incident from one of a plurality of different directions; a light identifier configured to identify light reflected from the object, from among the light incident from the plurality of different directions, based on information about an irradiation angle of the irradiated light; and a processor configured to determine a distance to the object by using the identified light; characterized in that : the light identifier comprises: a plurality of time counters configured to measure time of flights, TOFs, of the light incident from the plurality of different directions; and a selector configured to identify a TOF of the light reflected from the object, from among the TOFs of the light incident from the plurality of different directions, based on the information about the irradiation angle of the irradiated light; wherein the processor is further configured to determine the distance to the object based on the TOF of the light reflected from the object, and wherein the selector is connected to a back end of the plurality of time counters . a light source configured to irradiate light onto an object; a light detector comprising a plurality of light detection elements , each configured to individually detect light incident from one of a plurality of different directions; a light identifier configured to identify light reflected from the object, from among the light incident from the plurality of different directions, based on information about an irradiation angle of the irradiated light; and a processor configured to determine a distance to the object by using the identified light; characterized in that : the light identifier comprises: a plurality of time counters configured to measure time of flights, TOFs, of the light incident from the plurality of different directions; and a selector configured to identify a TOF of the light reflected from the object, from among the TOFs of the light incident from the plurality of different directions, based on the information about the irradiation angle of the irradiated light; a plurality of time counters configured to measure time of flights, TOFs, of the light incident from the plurality of different directions; and a selector configured to identify a TOF of the light reflected from the object, from among the TOFs of the light incident from the plurality of different directions, based on the information about the irradiation angle of the irradiated light; wherein the processor is further configured to determine the distance to the object based on the TOF of the light reflected from the object, and wherein the selector is connected to a back end of the plurality of time counters .
Housing for a switchgear, which housing comprises: - first and second parallel side walls connected by a frame , top wall and / or bottom wall ; - a door extending between the first and second side walls and arranged hingedly to the first side wall , wherein the door hinge axis is parallel to the side walls; - an instrument panel comprising a front face and third and fourth parallel side walls extending perpendicular from the front face; wherein the door has an opening through which the third and fourth side walls of the instrument panel extend into the housing , parallel to the first and second walls ; and wherein the instrument panel is hingedly arranged to the door, wherein the instrument panel hinge axis is parallel to the door hinge axis, characterized in that the instrument panel hinge axis is positioned adjacent to the second side wall. - first and second parallel side walls connected by a frame , top wall and / or bottom wall ; - a door extending between the first and second side walls and arranged hingedly to the first side wall , wherein the door hinge axis is parallel to the side walls; - an instrument panel comprising a front face and third and fourth parallel side walls extending perpendicular from the front face;
A composite colorant formulation comprising: (a) a visually-detectable dye, which partially absorbs energy emitted by a 5- and/or 6-carboxy-X-rhodamine passive reference dye at a specific wavelength range, at an integer multiple concentration of a sufficient concentration for visualizing the dye, wherein said integer multiple is between 2 and 1000; and (b) an internal reference molecule comprising a first fluorophore, which first fluorophore upon excitation emits energy at said specific wavelength range, wherein the first fluorophore is a 5- and/or 6-carboxy-X-rhodamine dye at a concentration, which is an integer multiple of a sufficient concentration to compensate for the absorbed signal of said 5- and/or 6-carboxy-X-rhodamine passive reference dye by the visually-detectable dye at said specific wavelength range, wherein said integer multiple of (b) is the same as the integer multiple of (a); wherein the formulation does not comprise sufficient components for target nucleic acid amplification if added to a target nucleic acid and primers. (a) a visually-detectable dye, which partially absorbs energy emitted by a 5- and/or 6-carboxy-X-rhodamine passive reference dye at a specific wavelength range, at an integer multiple concentration of a sufficient concentration for visualizing the dye, wherein said integer multiple is between 2 and 1000; and (b) an internal reference molecule comprising a first fluorophore, which first fluorophore upon excitation emits energy at said specific wavelength range, wherein the first fluorophore is a 5- and/or 6-carboxy-X-rhodamine dye at a concentration, which is an integer multiple of a sufficient concentration to compensate for the absorbed signal of said 5- and/or 6-carboxy-X-rhodamine passive reference dye by the visually-detectable dye at said specific wavelength range, wherein said integer multiple of (b) is the same as the integer multiple of (a);
A cell collection method of collecting cells cultured in a culture container containing a liquid culture medium and adhering to an inner surface of the culture container , the method comprising: a culture medium movement process of moving a used culture medium in the culture container to a predetermined reservoir after the cells are cultured; a detachment liquid supply process of, after the culture medium movement process, supplying a detachment liquid for detaching the cells from the inner surface of the culture container to the culture container ; and a mixing process of, after the detachment liquid supply process, mixing at least a part of the detachment liquid and the used culture medium ; wherein the reservoir includes a collection container for collecting the cells , and wherein in the mixing process, a suspension in which the detachment liquid and the cells are mixed is moved from the culture container to the collection container . a culture medium movement process of moving a used culture medium in the culture container to a predetermined reservoir after the cells are cultured; a detachment liquid supply process of, after the culture medium movement process, supplying a detachment liquid for detaching the cells from the inner surface of the culture container to the culture container ; and a mixing process of, after the detachment liquid supply process, mixing at least a part of the detachment liquid and the used culture medium ; wherein the reservoir includes a collection container for collecting the cells , and wherein in the mixing process, a suspension in which the detachment liquid and the cells are mixed is moved from the culture container to the collection container .
Method implemented by computer means for characterizing optical elements of a lens element adapted for a person, the lens element comprising: - a holder comprising a refraction area having a refractive power based on a prescription for correcting an abnormal refraction of an eye of the person; and - a plurality of optical elements configured so that at least one of slow down, retard or prevent a progress of the abnormal refraction of the eye of the person, the optical elements being located on at least one of the front surface, back surface, or between the front and back surface of the holder, and having a contour shape inscribable in a circle having a diameter greater than or equal to 0.1 mm and smaller than or equal to 7.0 mm; wherein the method comprises obtaining a two-dimension representation of the local optical power of the lens element using a fringe deflectometry method and characterizing at least part of the plurality of optical elements based on at least one difference of local optical powers on the two-dimension representation of the local optical power of the lens element, wherein the images used for the fringe deflectometry method are acquired by an image acquisition module and transformed to have pixels smaller than or equal to 0.05 mm × 0.05 mm. - a holder comprising a refraction area having a refractive power based on a prescription for correcting an abnormal refraction of an eye of the person; and - a plurality of optical elements configured so that at least one of slow down, retard or prevent a progress of the abnormal refraction of the eye of the person, the optical elements being located on at least one of the front surface, back surface, or between the front and back surface of the holder, and having a contour shape inscribable in a circle having a diameter greater than or equal to 0.1 mm and smaller than or equal to 7.0 mm; wherein the method comprises obtaining a two-dimension representation of the local optical power of the lens element using a fringe deflectometry method and characterizing at least part of the plurality of optical elements based on at least one difference of local optical powers on the two-dimension representation of the local optical power of the lens element, wherein the images used for the fringe deflectometry method are acquired by an image acquisition module and transformed to have pixels smaller than or equal to 0.05 mm × 0.05 mm.
A medical device comprising: a base layer; and a lubrication layer supported on at least a part of the base layer, wherein the lubrication layer contains a block copolymer (A) and a polymer (B), the block copolymer (A) being composed of a constituting unit derived from a reactive monomer that has an epoxy group and a constituting unit derived from at least one hydrophilic monomer selected from the group consisting of acrylamide and an acrylamide derivative, and the polymer (B) being composed of a constituting unit derived from one hydrophilic monomer selected from the group consisting of acrylamide and an acrylamide derivative, the block copolymer (A) is contained in a proportion of 20 to 80% by weight relative to the total weight of the block copolymer (A) and the polymer (B), and the block copolymer (A) is crosslinked or polymerized to form a mesh structure. a base layer; and a lubrication layer supported on at least a part of the base layer, wherein the lubrication layer contains a block copolymer (A) and a polymer (B), the block copolymer (A) being composed of a constituting unit derived from a reactive monomer that has an epoxy group and a constituting unit derived from at least one hydrophilic monomer selected from the group consisting of acrylamide and an acrylamide derivative, and the polymer (B) being composed of a constituting unit derived from one hydrophilic monomer selected from the group consisting of acrylamide and an acrylamide derivative, the block copolymer (A) is contained in a proportion of 20 to 80% by weight relative to the total weight of the block copolymer (A) and the polymer (B), and the block copolymer (A) is crosslinked or polymerized to form a mesh structure.
A kit for fixing vehicle sunshields, comprising: - a rod having at least one end and configured to allow a sunshield to slide thereon; - a support adapted to be fixed to an interior compartment of a vehicle and having at least one socket configured to receive and firmly hold the end of said rod ; - connection means configured to be placed between said rod and said socket for locking said rod in said socket by interference fit, wherein said connection means comprise a connector element configured to be arranged coaxial with said rod at said end , the connector element comprising: - an inner surface configured to grip said rod and hold it by interference fit, the inner surface having a plurality of projections ; - an elastically deformable sealing ring , said projections being defined on said sealing ring ; characterized in that the sealing ring can be switched between a grip configuration in which said projections project out of an inside perimeter of said connector element and a release configuration, in which the sealing ring is elastically deformed to move said projections back outwards. - a rod having at least one end and configured to allow a sunshield to slide thereon; - a support adapted to be fixed to an interior compartment of a vehicle and having at least one socket configured to receive and firmly hold the end of said rod ; - connection means configured to be placed between said rod and said socket for locking said rod in said socket by interference fit, wherein said connection means comprise a connector element configured to be arranged coaxial with said rod at said end , the connector element comprising: - an inner surface configured to grip said rod and hold it by interference fit, the inner surface having a plurality of projections ; - an elastically deformable sealing ring , said projections being defined on said sealing ring ;
A pellet configured for insertion into a gastrointestinal tract, the pellet comprising: a core comprising a core material which is solid, semi-solid or compressible; one or more sensors embedded in an interior of the pellet and/or on a surface of the pellet, at least one of the one or more sensors configured to obtain a pressure measurement within the gastrointestinal tract and during defecation of the pellet; a plurality of electrodes within or upon the pellet and configured to obtain impedance planimetric measurements within the gastrointestinal tract and during defecation of the pellet, the impedance planimetric measurements useful to determine cross-sectional areas, wherein the pellet is arranged to be decoupled, in use, from an insertion device for inserting the pellet into the gastrointestinal tract; and a central support that stabilizes and supports the pellet while providing bending flexibility for the pellet to have comparable mechanical properties to normal feces. a core comprising a core material which is solid, semi-solid or compressible; one or more sensors embedded in an interior of the pellet and/or on a surface of the pellet, at least one of the one or more sensors configured to obtain a pressure measurement within the gastrointestinal tract and during defecation of the pellet; a plurality of electrodes within or upon the pellet and configured to obtain impedance planimetric measurements within the gastrointestinal tract and during defecation of the pellet, the impedance planimetric measurements useful to determine cross-sectional areas, wherein the pellet is arranged to be decoupled, in use, from an insertion device for inserting the pellet into the gastrointestinal tract; and a central support that stabilizes and supports the pellet while providing bending flexibility for the pellet to have comparable mechanical properties to normal feces.
A gas turbine engine component comprising: an airfoil including an internal cooling channel , a platform , and a recessed area formed within the platform with an opening to the internal cooling channel to connect an upstream channel and a downstream channel that define a cooling flow path; and a meter plate mounted within the recessed area and including at least one hole to meter flow from the upstream channel to the downstream channel , the meter plate having an upstream side and a downstream side , and wherein the at least one hole extends through a thickness of the meter plate from the upstream side to the downstream side, characterized by : an exit diffuser (84; 84') extending outwardly from the downstream side of the meter plate to control cooling flow in a desired direction into the downstream channel , wherein the exit diffuser (84; 84') has an upstream diameter (D2) and a downstream diameter (D3) that is greater than the upstream diameter (D2) with a curved surface extending from the upstream diameter (D2) to the downstream diameter (D3). an airfoil including an internal cooling channel , a platform , and a recessed area formed within the platform with an opening to the internal cooling channel to connect an upstream channel and a downstream channel that define a cooling flow path; and a meter plate mounted within the recessed area and including at least one hole to meter flow from the upstream channel to the downstream channel , the meter plate having an upstream side and a downstream side , and wherein the at least one hole extends through a thickness of the meter plate from the upstream side to the downstream side, characterized by : an exit diffuser (84; 84') extending outwardly from the downstream side of the meter plate to control cooling flow in a desired direction into the downstream channel , wherein the exit diffuser (84; 84') has an upstream diameter (D2) and a downstream diameter (D3) that is greater than the upstream diameter (D2) with a curved surface extending from the upstream diameter (D2) to the downstream diameter (D3).