mhurhangee/patent-ind-claim-en huggingface dataset:
A system for cooling chewing gum, the system comprising: a cooling housing including a relatively upper cooling environment and a relatively lower cooling environment; a conveying device configured to convey the chewing gum from an entry point to an exit point of said cooling housing, said conveying device at least partially delimiting said relatively upper cooling environment from said relatively lower cooling environment; a first cooling system configured to provide cooling output to said relatively upper cooling environment; and a second cooling system configured to provide cooling output to said relatively lower cooling environment, wherein said relatively upper cooling environment and said relatively lower cooling environment are disposed in fluid separation from each other; and wherein said first cooling system includes a convective cooling system comprising at least one fan for moving air downwardly through said cooling housing proximate a first lateral edge of the chewing gum where it is pulled evenly across the chewing gum in a direction perpendicular to a flow of the chewing gum in response to a low pressure relative to an area proximate said first lateral edge. a cooling housing including a relatively upper cooling environment and a relatively lower cooling environment; a conveying device configured to convey the chewing gum from an entry point to an exit point of said cooling housing, said conveying device at least partially delimiting said relatively upper cooling environment from said relatively lower cooling environment; a first cooling system configured to provide cooling output to said relatively upper cooling environment; and a second cooling system configured to provide cooling output to said relatively lower cooling environment, wherein said relatively upper cooling environment and said relatively lower cooling environment are disposed in fluid separation from each other; and wherein said first cooling system includes a convective cooling system comprising at least one fan for moving air downwardly through said cooling housing proximate a first lateral edge of the chewing gum where it is pulled evenly across the chewing gum in a direction perpendicular to a flow of the chewing gum in response to a low pressure relative to an area proximate said first lateral edge.
A system for heating a medical fluid, the system comprising: a fluid injector , and at least one first fluid container for storing the fluid, the fluid injector having at least one second fluid container for receiving the fluid from the at least one first fluid container through a fluid path set ; at least one fluid path element being positioned in-line with at least a segment of the fluid path set between the at least one first fluid container and the at least one second fluid container of the fluid injector , wherein the at least one fluid path element heats the fluid to a pre-determined temperature as the fluid flows through the at least one fluid path element ; a controller for controlling an output of the at least one fluid path element based on at least one of a property of the at least one fluid path element and a property of the fluid flowing through the at least one fluid path element ; at least one temperature sensor for measuring a temperature of the fluid flowing through at least a portion of the at least one fluid path element ; characterized in that the controller receives temperature data from the at least one temperature sensor and transmits the temperature data to the fluid injector via a wired or wireless connection; and and in that the fluid injector adjusts an injection pressure limit based in part on the temperature of the fluid. a fluid injector , and at least one first fluid container for storing the fluid, the fluid injector having at least one second fluid container for receiving the fluid from the at least one first fluid container through a fluid path set ; at least one fluid path element being positioned in-line with at least a segment of the fluid path set between the at least one first fluid container and the at least one second fluid container of the fluid injector , wherein the at least one fluid path element heats the fluid to a pre-determined temperature as the fluid flows through the at least one fluid path element ; a controller for controlling an output of the at least one fluid path element based on at least one of a property of the at least one fluid path element and a property of the fluid flowing through the at least one fluid path element ; at least one temperature sensor for measuring a temperature of the fluid flowing through at least a portion of the at least one fluid path element ; characterized in that the controller receives temperature data from the at least one temperature sensor and transmits the temperature data to the fluid injector via a wired or wireless connection; and and in that the fluid injector adjusts an injection pressure limit based in part on the temperature of the fluid.
Storage container for low-temperature storage of laboratory objects, comprising - a housing , - an inner space , - an insulation arranged around the inner space , - a ceiling region which closes off the inner space at the top, - an opening in the ceiling region which provides access to the inner space from the outside, - a rotating carousel arranged in the inner space with storage places for the laboratory objects, - an upper pivot bearing which is located above the carousel and on which the carousel is rotatably suspended, characterized in that the storage container comprises a plurality of storage cassettes , each storage cassette forming a plurality of storage locations one above the other, wherein each storage cassette is removable from the storage container through the opening and wherein the carousel comprises a bottom element , on which the bearing cassettes rest and the carousel has at least one guide element spaced apart from the bottom element , which guide element horizontally secures the storage cassettes resting on the bottom element , but permits vertical movement of the storage cassettes. - a housing , - an inner space , - an insulation arranged around the inner space , - a ceiling region which closes off the inner space at the top, - an opening in the ceiling region which provides access to the inner space from the outside, - a rotating carousel arranged in the inner space with storage places for the laboratory objects, - an upper pivot bearing which is located above the carousel and on which the carousel is rotatably suspended,
Unit connector (1, 1', 1") for connecting an abutment of a dental implant to a base body of the dental implant , comprising a base portion (11, 11', 11") that can be inserted into the base body in an insertion direction (I) and fixed therein, an abutment-holding portion (12, 12', 12") for holding the abutment on the base body , a holding element that encompasses the abutment-holding portion and is designed to interact with the abutment-holding portion in order to hold the abutment, and a threadless shaft portion (13, 13', 13") arranged between the base portion and the abutment-holding portion, wherein at least two holding positions, mutually spaced in the insertion direction (I), for the abutment , are provided on the abutment-holding portion (12, 12', 12"); wherein the abutment-holding portion has at least one holding thread (121, 121', 121") in the form of an external thread for form-fitting and force-fitting interaction with the holding element; and wherein the holding element is designed in the manner of a sleeve with a substantially cylindrical outer contour; characterized in that the base portion (11, 11', 11") has a first external thread (111, 111', 111"), which is designed to be able to be brought into engagement with an internal thread of the base body and provides the at least two holding positions.
A multi-point detection system comprising: a light source (22; 122; 222) configured to emit an array of collimated light beams ; one or more light sensors (28; 128; 228) defining an array of lines of view , each of the lines of view being a straight path from a lens (30a; 130a) along which the lens (30a; 130a), to the exclusion of light from other directions, receives light from the region in which the system is used, each of the lines of view intersecting different ones of the collimated light beams at respective detection nodes , the one or more light sensors operable to emit sensor signals responsive to received process light from interaction of the collimated light beams with an analyte at the detection nodes ; and a controller connected to receive the sensor signals, the controller configured to determine from the process light whether the analyte contains a target species; characterised in that the light source (22; 122; 222) comprises a laser configured to emit a laser beam to a lens element at a wavelength configured to be altered in a controlled manner across a range of wavelengths, the lens element including a plurality of lenses that divide and collimate the laser beam into the array of collimated light beams ; and in that the controller is configured to determine a chemical identity of the target species from a spectrum of scattered light over the range of wavelengths. a light source (22; 122; 222) configured to emit an array of collimated light beams ; one or more light sensors (28; 128; 228) defining an array of lines of view , each of the lines of view being a straight path from a lens (30a; 130a) along which the lens (30a; 130a), to the exclusion of light from other directions, receives light from the region in which the system is used, each of the lines of view intersecting different ones of the collimated light beams at respective detection nodes , the one or more light sensors operable to emit sensor signals responsive to received process light from interaction of the collimated light beams with an analyte at the detection nodes ; and a controller connected to receive the sensor signals, the controller configured to determine from the process light whether the analyte contains a target species; characterised in that the light source (22; 122; 222) comprises a laser configured to emit a laser beam to a lens element at a wavelength configured to be altered in a controlled manner across a range of wavelengths, the lens element including a plurality of lenses that divide and collimate the laser beam into the array of collimated light beams ; and in that the controller is configured to determine a chemical identity of the target species from a spectrum of scattered light over the range of wavelengths.
A resin dispersion having, dispersed in water with a 50% particle diameter as calculated by volume according to the description of at most 0.5 μm, a polymer (C) having a hydrophilic polymer (B) or an acidic group bonded to a propylene/α-olefin copolymer (A) which is a copolymer of propylene with an α-olefin other than propylene, wherein: the copolymer (A) has a propylene content of at least 50 mol% and less than 100 mol%, and the copolymer (A) has a weight average molecular weight Mw of at least 10,000 and a molecular weight distribution Mw/Mn of at most 3.5; wherein the copolymer (A) has a melting point Tm of at most 100°C and a heat of crystal fusion ΔH, as measured using a differential scanning calorimeter according to the description, of at most 60 J/g, and wherein the surfactant content in the resin dispersion is less than 1 part by weight per 100 parts by weight of the entire resin amount.
A tongue break-off tool comprising: a hook member configured to have a hook hooked onto a tongue (B2) of an insert (B1) that is inserted into a tap hole (A2); a moving member configured to move the hook member in a diagonal direction diagonally intersecting an extending direction of the tap hole (A2) from a far side to a near side of the tap hole (A2) to break off the tongue (B2) from the insert (B1); and a holding member configured to hold the tongue (B2) broken off from the insert (B1). a hook member configured to have a hook hooked onto a tongue (B2) of an insert (B1) that is inserted into a tap hole (A2); a moving member configured to move the hook member in a diagonal direction diagonally intersecting an extending direction of the tap hole (A2) from a far side to a near side of the tap hole (A2) to break off the tongue (B2) from the insert (B1); and a holding member configured to hold the tongue (B2) broken off from the insert (B1).
A refrigerator comprising a freezing compartment closed by a door, and a member adapted to reduce the moisture content of air, said member being a flat element placed adjacent to the top of the freezing compartment and configured to be removed by the user for eliminating frost, wherein the flat element is positioned horizontally or inclined within the freezing compartment characterized in that the flat element presents a plurality of fins arranged transversally to the opening of the compartment .
A junction box for installing electrical cables, comprising a housing which includes several, preferably four corner areas which each comprise a corner, wherein at least one of the corner areas is sloping down into the direction of the corner thereof, wherein the housing comprises a bottom part and a cover , wherein the bottom part and the cover comprise fastening means corresponding to each other, wherein the fastening means are arranged in the corner areas of the housing and wherein a surface of the housing in which an opening for one of the fastening means is formed, extends in a curved or inclined manner with respect to the axis of the fastening means , characterized in that the bottom part and the cover are configured as to be lowered and/or curved into the direction of the fastening means and that the fastening means comprise a head, the surface of which is curved or inclined in a corresponding manner to the surface of the housing , wherein in the closed state the fastening means is aligned with the external surface of the housing and in the opened state it projects at least partly from the external surface of the housing .
Color holographic foil, including a base 1, a release layer 2, embossing layer 3, and optical reflective layer 4 with thickness d arranged successively, and adhesive layer 5, said embossing layer 3 comprising smooth areas 6 without any micro-relief and micro-relief areas 7 containing protrusions 8 and depressions 9 with a depth h , and at least two micro-relief areas 7 are dyed areas 10, where said embossing layer 3 is colored with a dye, and at least one dyed area 10 is a multi-bonded area 11, said multi-bonded area 11 has at least one micro-relief boundary 12, fully or partially bordering with said dyed areas 10, and at least one smooth boundary 13, fully bordering with said smooth areas 6, and the micro-relief topography of said multi-bonded area 11 differs from the micro-relief topography in corresponding neighboring dyed areas 10, characterized in that said adhesive layer 5 is arranged over said optical reflective layer 4, and a distance m between said smooth boundary 13 and the nearest micro-relief boundary 12 is smaller than 0.2 mm, , and said embossing layer 3 in said dyed areas 10 and in said multi-bonded areas 11 is colored in different saturations of a single color tone, , and wherein the distance p between two neighboring depressions 9 is between 0.1 μm and 50 μm, and the depth h of said depressions 9 is from 0.05 μm to 2 μm, and the thickness d of said reflective layer 4 in said smooth areas 6 is constant, ranging between 15 nm and 100 nm, and in said micro-relief areas 7 thickness d is variable and inversely proportional to the depth h of the depressions 9 and is at least 20% thinner than in said smooth areas 6.
A data transmission method, comprising: compressing (S11) an original Radio Resource Control, RRC, message when determining that a length of the original RRC message exceeds a preset threshold; packaging (S12) a compressed RRC message into a Packet Data Convergence Protocol, PDCP, Protocol Data Unit, PDU; and sending (S13) the packaged PDCP PDU to a receiving end; characterized in that , header information of the packaged PDCP PDU comprises a first preset field, and the first preset field is for indicating whether an RRC message in the packaged PDCP PDU is the compressed RRC message; and wherein the header information of the packaged PDCP PDU comprises a second preset field, and the second preset field is for indicating a compression algorithm used for compressing the original RRC message. compressing (S11) an original Radio Resource Control, RRC, message when determining that a length of the original RRC message exceeds a preset threshold; packaging (S12) a compressed RRC message into a Packet Data Convergence Protocol, PDCP, Protocol Data Unit, PDU; and sending (S13) the packaged PDCP PDU to a receiving end; characterized in that , header information of the packaged PDCP PDU comprises a first preset field, and the first preset field is for indicating whether an RRC message in the packaged PDCP PDU is the compressed RRC message; and wherein the header information of the packaged PDCP PDU comprises a second preset field, and the second preset field is for indicating a compression algorithm used for compressing the original RRC message.
A system for pultruding a beam comprising: a pulling mechanism continuously pulling on a preform of yarns (A) including a thermoplastic matrix and fibers; and a sequence of a pre-heating module to pre-heat the preform, a first die having a tapering channel portion heated such that the preform reaches a desired low viscosity temperature for resin in the thermoplastic matrix to impregnate the fibers, a vacuum module having a vacuum cavity to remove air from the preform exiting the first die, at least a second die having a tapering channel portion heated such that the preform is at the desired low viscosity temperature for resin in the thermoplastic matrix to further impregnate the fibers, and a cooling module to cool the beam before the beam reaches the pulling mechanism, wherein the pulling mechanism is downstream of the cooling module; and wherein the system has a channel smaller in cross-section in the second die than in the first die. a pulling mechanism continuously pulling on a preform of yarns (A) including a thermoplastic matrix and fibers; and a sequence of a pre-heating module to pre-heat the preform, a first die having a tapering channel portion heated such that the preform reaches a desired low viscosity temperature for resin in the thermoplastic matrix to impregnate the fibers, a vacuum module having a vacuum cavity to remove air from the preform exiting the first die, at least a second die having a tapering channel portion heated such that the preform is at the desired low viscosity temperature for resin in the thermoplastic matrix to further impregnate the fibers, and a cooling module to cool the beam before the beam reaches the pulling mechanism, wherein the pulling mechanism is downstream of the cooling module; and wherein the system has a channel smaller in cross-section in the second die than in the first die.
A tool for gaining lateral access to a well via a lateral access passage , the tool comprising a head portion and being configured to axially forwardly advance the head portion towards or in the lateral access passage and being configured to transmit rotational drive to the head portion and/or to deliver fluid via a fluid transmission conduit to or forwardly of the head portion , and the tool comprising a first shaft and a shaft assembly comprising a second shaft , the second shaft being at least partly received in the first shaft so as to be axially forwardly movable therewith, whereby in use axial forward movement of the first and second shafts causes forwardly advancement of the head portion , and the second shaft being axially forwardly movable relative to the first shaft , characterised in the first shaft comprising an internal thread and the shaft assembly comprising an external thread provided on a nut of the shaft assembly and engaging in the internal thread of the first shaft whereby relative rotation of the internal and external threads causes said axial forward movement of the second shaft relative to the first shaft without rotation of the second shaft relative to the first shaft .
A method performed by a first node implementing a visited Network Repository Function, NRF, in a Visited Public Land Mobile Network, VPLMN, for communicating with a third node implementing a home NRF in a Home Public Land Mobile Network, HPLMN, the method comprises: - determining that the third node should be communicated with; - sending towards a second node implementing a visited Security Edge Protection Proxy, SEPP in the VPLMN, a GET request for a telescopic Fully Qualified Domain Name, FQDN, for the third node in the HPLMN to be used by the first node in the VPLMN to communicate with the third node in the HPLMN, which request comprises a FQDN of the third node in the HPLMN; - receiving , from the second node, a telescopic FQDN for the third node wherein the FQDN for the third node in the HPLMN is flattened to a single label to be used by the first node to communicate with the third node. - determining that the third node should be communicated with; - sending towards a second node implementing a visited Security Edge Protection Proxy, SEPP in the VPLMN, a GET request for a telescopic Fully Qualified Domain Name, FQDN, for the third node in the HPLMN to be used by the first node in the VPLMN to communicate with the third node in the HPLMN, which request comprises a FQDN of the third node in the HPLMN; - receiving , from the second node, a telescopic FQDN for the third node wherein the FQDN for the third node in the HPLMN is flattened to a single label to be used by the first node to communicate with the third node.
A stabilized multi-use solid activated bleach composition, comprising: at least 50 wt-% of a solid active oxygen source; 0.1 - 45 wt-% of a bleach activating agent; and a C 6 -C 18 fatty acid binding system; wherein the solid composition has less than 1 wt-% of water and provides shelf stability at room temperature for at least about one year; wherein the composition further includes from 1 to 25 wt-% of an alkaline filler selected from the group consisting of an alkali metal carbonate, alkali metal metasilicate, alkali metal bicarbonate, alkali metal sesquicarbonate and a mixture thereof. at least 50 wt-% of a solid active oxygen source; 0.1 - 45 wt-% of a bleach activating agent; and a C 6 -C 18 fatty acid binding system; wherein the solid composition has less than 1 wt-% of water and provides shelf stability at room temperature for at least about one year; wherein the composition further includes from 1 to 25 wt-% of an alkaline filler selected from the group consisting of an alkali metal carbonate, alkali metal metasilicate, alkali metal bicarbonate, alkali metal sesquicarbonate and a mixture thereof.