mhurhangee/patent-ind-claim-en huggingface dataset:
A plastic-metal-plastic hybrid smartcard wherein a metal layer of the plastic-metal-plastic hybrid smartcard comprises a first metal layer and a second metal layer, the first metal layer (ML) having a module opening (MO, 508) and a first slit (S1, 507), and acting as a first coupling frame (CF1, 506); the second metal layer (ML) having an extended second slit (S2, 511) which is offset in a position from the first slit, and acting as a second coupling frame (CF2, 510); wherein the second metal layer does not have a module opening (MO); the plastic-metal-plastic hybrid smartcard comprising a transponder chip module (TCM, 501) disposed in the module opening (MO, 508) and overlapping the extended second slit (S2, 511) wherein the transponder chip module comprises a module antenna (MA) comprising windings; wherein in a region around the module antenna (MA), the extended second slit (S2, 511) overlaps or runs in close proximity to the windings of the module antenna, wherein the extended second slit describes a nearly complete loop that permits a passage of alternating electromagnetic fields through the coupling frames (CF1, CF2) and the transponder chip module and extends to a periphery of the second metal layer. wherein a metal layer of the plastic-metal-plastic hybrid smartcard comprises a first metal layer and a second metal layer, the first metal layer (ML) having a module opening (MO, 508) and a first slit (S1, 507), and acting as a first coupling frame (CF1, 506); the second metal layer (ML) having an extended second slit (S2, 511) which is offset in a position from the first slit, and acting as a second coupling frame (CF2, 510); wherein the second metal layer does not have a module opening (MO); the plastic-metal-plastic hybrid smartcard comprising a transponder chip module (TCM, 501) disposed in the module opening (MO, 508) and overlapping the extended second slit (S2, 511) wherein the transponder chip module comprises a module antenna (MA) comprising windings; wherein in a region around the module antenna (MA), the extended second slit (S2, 511) overlaps or runs in close proximity to the windings of the module antenna, wherein the extended second slit describes a nearly complete loop that permits a passage of alternating electromagnetic fields through the coupling frames (CF1, CF2) and the transponder chip module and extends to a periphery of the second metal layer.
An antibody or fragment thereof that is capable of specifically binding to and blocking TREM-1, wherein the antibody or fragment thereof is capable of blocking PGLYRP1-induced activation of TREM-1; wherein the antibody or fragment thereof comprises: a CDRH1 sequence TYAMH corresponding to amino acid residues 31 to 35 of SEQ ID NO: 6; a CDRH2 sequence RIRTKSSNYATYYAASVKG corresponding to amino acids 50 to 68 of SEQ ID NO: 6; and a CDRH3 sequence DMGQRRQFAY corresponding to amino acid residues 101 to 110 of SEQ ID NO: 6; and wherein the antibody or fragment thereof comprises: a CDRL1 sequence RASESVDTFDYSFLH corresponding to amino acid residues 24 to 38 of SEQ ID NO: 7; a CDRL2 sequence RASNLES corresponding to amino acid residues 54 to 60 of SEQ ID NO: 7; and a CDRL3 sequence QQSNEDPYT corresponding to amino acid residues 93 to 101 of SEQ ID NO: 7. a CDRH1 sequence TYAMH corresponding to amino acid residues 31 to 35 of SEQ ID NO: 6; a CDRH2 sequence RIRTKSSNYATYYAASVKG corresponding to amino acids 50 to 68 of SEQ ID NO: 6; and a CDRH3 sequence DMGQRRQFAY corresponding to amino acid residues 101 to 110 of SEQ ID NO: 6; and wherein the antibody or fragment thereof comprises: a CDRL1 sequence RASESVDTFDYSFLH corresponding to amino acid residues 24 to 38 of SEQ ID NO: 7; a CDRL2 sequence RASNLES corresponding to amino acid residues 54 to 60 of SEQ ID NO: 7; and a CDRL3 sequence QQSNEDPYT corresponding to amino acid residues 93 to 101 of SEQ ID NO: 7. a CDRL1 sequence RASESVDTFDYSFLH corresponding to amino acid residues 24 to 38 of SEQ ID NO: 7; a CDRL2 sequence RASNLES corresponding to amino acid residues 54 to 60 of SEQ ID NO: 7; and a CDRL3 sequence QQSNEDPYT corresponding to amino acid residues 93 to 101 of SEQ ID NO: 7.
A method, comprising: measuring radiation I m obtained from a radiation detector that received radiation through an object , wherein measured radiation I m comprises primary radiation I p passing through the object in a field-of-view, FOV, of the radiation detector and scatter radiation I s that includes object scatter radiation from the object in the FOV and background scatter radiation b from matter outside the FOV; simulating radiation transport through a model of the object , resulting in simulated primary radiation J p from the model of the object and simulated scatter radiation J s from the model of the object , wherein combined simulated radiation J tot includes the simulated primary radiation J p and the simulated scatter radiation J s ; the method also comprising: estimating the background scatter radiation b from the measured radiation I m and the combined simulated radiation J tot ; estimating scatter radiation I s based on the estimated background scatter radiation b; and estimating primary radiation I p based on the estimated scatter radiation I s . measuring radiation I m obtained from a radiation detector that received radiation through an object , wherein measured radiation I m comprises primary radiation I p passing through the object in a field-of-view, FOV, of the radiation detector and scatter radiation I s that includes object scatter radiation from the object in the FOV and background scatter radiation b from matter outside the FOV; simulating radiation transport through a model of the object , resulting in simulated primary radiation J p from the model of the object and simulated scatter radiation J s from the model of the object , wherein combined simulated radiation J tot includes the simulated primary radiation J p and the simulated scatter radiation J s ; the method also comprising: estimating the background scatter radiation b from the measured radiation I m and the combined simulated radiation J tot ; estimating scatter radiation I s based on the estimated background scatter radiation b; and estimating primary radiation I p based on the estimated scatter radiation I s . estimating the background scatter radiation b from the measured radiation I m and the combined simulated radiation J tot ; estimating scatter radiation I s based on the estimated background scatter radiation b; and estimating primary radiation I p based on the estimated scatter radiation I s .
Gas injection valve having a valve housing in which, for the purpose of opening and closing a fluid connection between a fluid inlet and a fluid outlet of the valve housing , a closure element having at least one sleeve section can be moved along its sleeve longitudinal axis (L) by means of an actuator , wherein the actuator has parts that are respectively stationary and movable with respect to the valve housing and at least the movable parts of the actuator and the closure element are arranged entirely within a fluid space , enclosed by the valve housing , between the fluid inlet and the fluid outlet , and wherein the valve has at least one double-seal seat with a first closed sealing line and a second closed sealing line, wherein, with closed fluid connection, the first and the second closed sealing line divide the fluid space respectively into partial fluid spaces, connected directly with the fluid inlet and directly with the fluid outlet, so that at both sealing lines respectively on one side of a corresponding sealing contact a direct fluid connection exists to the fluid inlet and the other side of the corresponding sealing contact a direct fluid connection exists to the fluid outlet, characterized in that the at least one double-seal seat has on the sleeve section a first seal device and a second seal device , spaced apart from the first seal device along the sleeve longitudinal axis (L), that the at least one double-seal seat comprises on the valve housing a first counter-seal device and a second counter-seal device , spaced apart from the first counter-seal device along the sleeve longitudinal axis (L), wherein in order to close the fluid connection the first seal device is in sealing contact with the first counter-seal device along the first closed sealing line and the second seal device is in sealing contact with the second counter-seal device along the second closed sealing line respectively, that the distance along the sleeve longitudinal axis (L) between the first and the second seal device is equal to the distance between the first and the second counter-seal device , so that the first and the second seal device come in contact simultaneously with the first and the second counter-seal device , that with respect to the at least one double-seal seat the opened fluid connection between fluid inlet and fluid outlet at least in the region between the first seal device and the second seal device goes via the inner side and the outer side of the sleeve section and that with regard to the at least one seal seat pair, the ratio between a first area enclosed by the first sealing line in projection along the sleeve longitudinal axis (L) and a second area enclosed by the second sealing line in projection along the sleeve longitudinal axis (L) is between 6/10 and 10/6.
Method for providing a metallically reflective surface on a substrate, the metallically reflective surface being produced by • applying a layer of a primer to the substrate, • to form a silver layer, mixing a silver salt solution with a reductant and spraying it onto the primer layer, and • applying, directly to the silver layer, at least one transparent or translucent topcoat layer, preferably at least one clearcoat layer, wherein the primer comprises a corrosion inhibitor which is selected from the group comprising benzotriazole, tolyltriazole, benzimidazole and mixtures of two or more of these compounds, characterized in that the at least one transparent or translucent topcoat layer is formed from at least one coating composition comprising a hydroxy-functional resin and a curing agent based on isophorone diisocyanate. • applying a layer of a primer to the substrate, • to form a silver layer, mixing a silver salt solution with a reductant and spraying it onto the primer layer, and • applying, directly to the silver layer, at least one transparent or translucent topcoat layer, preferably at least one clearcoat layer,
A method for treating battery waste, comprising: a first heat treatment step of heating the battery waste in an atmosphere comprising at least one selected from the group consisting of nitrogen, carbon dioxide and water vapor; and after the first heat treatment step, a second heat treatment step of changing the atmosphere in the first heat treatment step and heating the battery waste in an atmosphere which is different from the atmosphere in the first heat treatment step and which comprises a larger amount of oxygen than that in the first heat treatment step; wherein in the first heat treatment step oxygen is present, and an oxygen partial pressure of the atmosphere is retained in a range of higher than 0 atm to 4 × 10 -2 atm; wherein in the first heat treatment step, the highest temperature of the battery waste during heating is 400 °C to 650 °C; and wherein in the second heat treatment step, the highest temperature of the battery waste during heating is 400 °C to 650 °C. a first heat treatment step of heating the battery waste in an atmosphere comprising at least one selected from the group consisting of nitrogen, carbon dioxide and water vapor; and after the first heat treatment step, a second heat treatment step of changing the atmosphere in the first heat treatment step and heating the battery waste in an atmosphere which is different from the atmosphere in the first heat treatment step and which comprises a larger amount of oxygen than that in the first heat treatment step; wherein in the first heat treatment step oxygen is present, and an oxygen partial pressure of the atmosphere is retained in a range of higher than 0 atm to 4 × 10 -2 atm; wherein in the first heat treatment step, the highest temperature of the battery waste during heating is 400 °C to 650 °C; and wherein in the second heat treatment step, the highest temperature of the battery waste during heating is 400 °C to 650 °C.
A method of implementing and using a preset elevator call using an elevator system and a mobile device , the method comprising: generating the preset elevator call that includes programmed conditions that include a destination floor; storing the preset elevator call in a user profile on the mobile device and at least one corresponding triggering condition; retrieving the preset elevator call based on detecting the corresponding triggering condition; and executing the retrieved preset elevator call, characterised by prompting a user with a notification for changing the programmed conditions of the preset elevator call prior to or after executing the retrieved preset elevator call, wherein the notification includes an input interface for changing the programmed conditions of the preset elevator call. generating the preset elevator call that includes programmed conditions that include a destination floor; storing the preset elevator call in a user profile on the mobile device and at least one corresponding triggering condition; retrieving the preset elevator call based on detecting the corresponding triggering condition; and executing the retrieved preset elevator call, characterised by prompting a user with a notification for changing the programmed conditions of the preset elevator call prior to or after executing the retrieved preset elevator call, wherein the notification includes an input interface for changing the programmed conditions of the preset elevator call.
A telecommunications closure , comprising: a body defining an interior space ; a plurality of panel holders in the interior space; and a panel positioned in one of the plurality of panel holders, wherein the panel comprises a point of connection component for splitting or converting a signal; wherein the panel comprises a first cable storage component , wherein the first cable storage component is a cable storage reel and wherein the panel is pivotally mounted to the one of the plurality of panel holders . a body defining an interior space ; a plurality of panel holders in the interior space; and a panel positioned in one of the plurality of panel holders, wherein the panel comprises a point of connection component for splitting or converting a signal; wherein the panel comprises a first cable storage component , wherein the first cable storage component is a cable storage reel and wherein the panel is pivotally mounted to the one of the plurality of panel holders .
A steel cord , comprising a core layer and a sheath layer, said core layer comprising a plurality of core wires with a number of n and said sheath layer comprising a plurality of sheath wires with a number of m, saic steel cord having a flat cross-section with a major axis and a minor axis, said flat cross-section having a flat ratio being the ratio of the length of said major axis and the length of said minor axis, said flat ratio being more than 1.2, said steel cord having a breaking load being BL cord , said core wires and said sheath wires having a sum breaking load being Sum BLwires when said core wires and said sheath wires are untwisted from said steel cord , characterized in that said n ranges from 2 to 3, said m ranges from 6 to 12 and said BL cord and said Sum BL wires satisfies the following formula: BL cord / Sum BL wires > 96 % .
Pair of spectacles comprising two ophthalmic lenses , which are embodied as spectacle lenses , which each have a changeable corrective effect, characterized in that the pair of spectacles is designed to automatically change the corrective effect of the ophthalmic lenses over a predetermined period of time of at least 30 minutes, wherein the change in the respective corrective effect over the predetermined period of time is gradual, wherein the pair of spectacles is further designed to change the respective corrective effect for both spectacle lenses in the same way and/or in different ways; wherein the ophthalmic lenses each have at least two at least partly transparent electrodes and a liquid crystal layer disposed between the electrodes, wherein the spectacle lenses are designed to automatically change the respective corrective effect over the predetermined period of time by means of the liquid crystal layer ; and wherein the pair of spectacles has a control unit which is designed to control the liquid crystal layer and to supply it with power, wherein the control unit is formed in the temples of the pair of spectacles.
An airfoil cooling arrangement, comprising an airfoil wall having a first face and a second face opposite the first face , the airfoil wall establishing a channel configured to communicate fluid between at least one inlet aperture and at least one outlet aperture , wherein the channel comprises multiple secondary portions branching from a primary portion , each of the secondary portions has a smaller cross-sectional area than the primary portion of the channel , and a portion of the channel terminating at the at least one outlet aperture includes a diffused area ; characterised in that : a flow augmentation feature is disposed within the channel and is configured to turbulate flow through the channel .
An adhesive sheet comprising: a base material, a primer layer, and an adhesive layer cured by radiation, arranged in this order; wherein the primer layer comprises a (meth)acrylic polymer having a nitrogen-containing group and a polymer having a polyoxyalkylene group; wherein the material of the base material is selected from the group consisting of polyurethanes, polyesters, and polyvinyl chloride; and wherein the adhesive layer is selected from the group consisting of silicone-based adhesive layers and acrylic-based adhesive layers. a base material, a primer layer, and an adhesive layer cured by radiation, arranged in this order; wherein the primer layer comprises a (meth)acrylic polymer having a nitrogen-containing group and a polymer having a polyoxyalkylene group; wherein the material of the base material is selected from the group consisting of polyurethanes, polyesters, and polyvinyl chloride; and wherein the adhesive layer is selected from the group consisting of silicone-based adhesive layers and acrylic-based adhesive layers.
A spray ionization device , comprising: a first tube including a first channel through which a liquid (Lf) can flow, the first tube including a first outlet for ejecting the liquid (Lf) at one end; a second tube surrounding the first tube with a gap and including a second channel through which a gas (Gf) can flow, the second tube including a second outlet arranged further toward a tip than the first outlet at the one end, the second channel being defined by an outer circumferential surface of the first tube and an inner circumferential surface of the second tube ; an electrode that extends within the first channel of the first tube from an opposite end to the one end, and is arranged so that a leading end is at the same position as the first outlet or further toward the opposite end than the first outlet , the electrode being capable of applying voltage to the liquid (Lf) by way of a power source connected to the electrode and being a wire formed from an electrode material including a platinum group metal, gold or an alloy thereof, or titanium or tungsten; and an opening provided to the second tube between the first outlet and the second outlet , the opening being a portion at which a diameter of the inner circumferential surface of the second tube is smallest and being narrower than an opening of the first outlet , wherein electrically charged droplets of the liquid (Lf) can be ejected from the second outlet . a second tube surrounding the first tube with a gap and including a second channel through which a gas (Gf) can flow, the second tube including a second outlet arranged further toward a tip than the first outlet at the one end, the second channel being defined by an outer circumferential surface of the first tube and an inner circumferential surface of the second tube ; an electrode that extends within the first channel of the first tube from an opposite end to the one end, and is arranged so that a leading end is at the same position as the first outlet or further toward the opposite end than the first outlet , the electrode being capable of applying voltage to the liquid (Lf) by way of a power source connected to the electrode and being a wire formed from an electrode material including a platinum group metal, gold or an alloy thereof, or titanium or tungsten; and an opening provided to the second tube between the first outlet and the second outlet , the opening being a portion at which a diameter of the inner circumferential surface of the second tube is smallest and being narrower than an opening of the first outlet , wherein electrically charged droplets of the liquid (Lf) can be ejected from the second outlet .
An aerosol provision device for generating aerosol for user inhalation, the aerosol provision device comprising: a first aerosol generating area and a second aerosol generating area each for receiving an aerosol precursor material; a mouthpiece from which a user inhales generated aerosol during use, wherein the mouthpiece comprises first and second mouthpiece openings ; a first pathway extending from the first aerosol generating area to the first mouthpiece opening for transporting a first aerosol generated from the aerosol precursor material in the first aerosol generating area, wherein the first aerosol is able to exit the aerosol provision device through the first mouthpiece opening; and a second pathway extending from the second aerosol generating area to the second mouthpiece opening for transporting a second aerosol generated from the aerosol precursor material in the second aerosol generating area, wherein the second aerosol is able to exit the aerosol provision device through the second mouthpiece opening, and wherein the first and second pathways are physically isolated from one another to prevent mixing of the first and second aerosols as the first and second aerosols are transported along the respective pathways such that the first aerosol and the second aerosol are not permitted to mix within the aerosol provision device during normal use. a first aerosol generating area and a second aerosol generating area each for receiving an aerosol precursor material; a mouthpiece from which a user inhales generated aerosol during use, wherein the mouthpiece comprises first and second mouthpiece openings ; a first pathway extending from the first aerosol generating area to the first mouthpiece opening for transporting a first aerosol generated from the aerosol precursor material in the first aerosol generating area, wherein the first aerosol is able to exit the aerosol provision device through the first mouthpiece opening; and a second pathway extending from the second aerosol generating area to the second mouthpiece opening for transporting a second aerosol generated from the aerosol precursor material in the second aerosol generating area, wherein the second aerosol is able to exit the aerosol provision device through the second mouthpiece opening, and wherein the first and second pathways are physically isolated from one another to prevent mixing of the first and second aerosols as the first and second aerosols are transported along the respective pathways such that the first aerosol and the second aerosol are not permitted to mix within the aerosol provision device during normal use.