mhurhangee/patent-ind-claim-en huggingface dataset:
An additive manufacturing method in which regions of successively-deposited layers of granular construction material are bound together so as to form a three-dimensional structure of bound material extending through and between the layers, the method comprising repetitively: depositing a first granular construction material as a layer into a build region; selectively binding regions of the first granular construction material together to form bound regions within the layer; removing unbound granular construction material from the layer so as to provide at least one void in the layer; depositing a second granular construction material into the build region so as to fill the at least one void; selectively binding regions of the second granular construction material together to form bound regions within the layer; and applying a solvent to the three-dimensional structure to dissolve portions of the structure formed from one of the first and second granular construction materials but not portions of the structure formed from the other of the first and second granular construction materials, wherein the second granular construction material is different from the first granular construction material, and wherein the first granular material has a different solubility than the second granular material, the different solubility being with regard to the solvent. depositing a first granular construction material as a layer into a build region; selectively binding regions of the first granular construction material together to form bound regions within the layer; removing unbound granular construction material from the layer so as to provide at least one void in the layer; depositing a second granular construction material into the build region so as to fill the at least one void; selectively binding regions of the second granular construction material together to form bound regions within the layer; and applying a solvent to the three-dimensional structure to dissolve portions of the structure formed from one of the first and second granular construction materials but not portions of the structure formed from the other of the first and second granular construction materials, wherein the second granular construction material is different from the first granular construction material, and wherein the first granular material has a different solubility than the second granular material, the different solubility being with regard to the solvent.
Mounting device for securing a hat-shaped tyre module , in particular a tyre pressure sensor, on an inner side of a pneumatic tyre for vehicles, having a stand , from which a support arm extends, wherein a placement head , which can be lowered using a predetermined force, is attached on the longitudinal end of the support arm facing away from the stand , wherein the placement head has a retaining device , with which the hat-shaped tyre module may be detachably held in a clamping way on the placement head during the fixing, and at least one heating element for material connection of the hat-shaped tyre module to the inner side of the pneumatic tyre, wherein the support arm is mounted on the stand to be pivotable at its longitudinal end facing away from the placement head , wherein at least one first pneumatic cylinder , which is designed to raise and lower the placement head with the predetermined force, is arranged on the support arm , and wherein the placement head is designed as a hollow cylinder and the hat-shaped tyre module is arranged pressed into the cavity of the placement head in such a way that a circumferential edge of the tyre module and the bottom side of the hat-shaped tyre module are arranged on a longitudinal end of the placement head facing away from the first pneumatic cylinder , so that at least the circumferential edge of the hat-shaped tyre module is pressed on to the inner side of the pneumatic tyre during the lowering of the placement head .
An isolated anti-CD47 antibody molecule, comprising a heavy chain complementarity determining region 1 (HC CDR1) of the amino acid sequence set forth in SEQ ID NO: 7, a heavy chain complementarity determining region 2 (HC CDR2) of the amino acid sequence set forth in SEQ ID NO: 8, a heavy chain complementarity determining region 3 (HC CDR3) of the amino acid sequence set forth in SEQ ID NO: 9, a light chain complementarity determining region 1 (LC CDR1) of the amino acid sequence set forth in SEQ ID NO: 10, a light chain complementarity determining region 2 (LC CDR2) of the amino acid sequence set forth in SEQ ID NO: 11, and a light chain complementarity determining region 3 (LC CDR3) of the amino acid sequence set forth in SEQ ID NO: 12.
A flow analyzer comprising: - a sampling device configured to introduce a sample into a tube ; - a reagent adding device configured to add a reagent to the sample which is transferred through the tube ; and - an analyzing device configured to quantitatively or qualitatively analyze the sample to which the reagent has been added, - said flow analyzer further comprising: - a gas-liquid separating device configured to sequentially remove gas which is present in the tube ; - a heating device configured to carry out a heat treatment at a heating temperature of 40°C or higher on the sample to which the reagent has been added; and - a pressurizing device including a compressor for introducing compressed air inside the tube to apply, to the gas which is present in the tube and which expands due to the heat treatment, pressure against the flow of the sample which is transferred, thereby preventing expansion of the gas, - wherein the pressure is one applied against the flow of the sample which is transferred through the tube , and - wherein the quantitative analysis or the qualitative analysis is one targeting a small amount of a metal contained in the sample. - a sampling device configured to introduce a sample into a tube ; - a reagent adding device configured to add a reagent to the sample which is transferred through the tube ; and - an analyzing device configured to quantitatively or qualitatively analyze the sample to which the reagent has been added, - said flow analyzer further comprising: - a gas-liquid separating device configured to sequentially remove gas which is present in the tube ; - a heating device configured to carry out a heat treatment at a heating temperature of 40°C or higher on the sample to which the reagent has been added; and - a pressurizing device including a compressor for introducing compressed air inside the tube to apply, to the gas which is present in the tube and which expands due to the heat treatment, pressure against the flow of the sample which is transferred, thereby preventing expansion of the gas, - wherein the pressure is one applied against the flow of the sample which is transferred through the tube , and - wherein the quantitative analysis or the qualitative analysis is one targeting a small amount of a metal contained in the sample.
A hose forming device for forming a heated hose (H), the hose (H) forming device comprising: a first pipe including a first body , a first conduit formed inside the first body and extended in the same direction as an extension direction of the first body , and a first jig connected to the first conduit and protruded from the first body to be inserted into a one end part of the hose (H); a second pipe including a second body , a second conduit formed inside the second body and extended in the same direction as an extension direction of the second body , and a second jig connected to the second conduit and protruded from the second body to be inserted into the other end part of the hose (H); a fluid supply device connected to at least one of the first conduit of the first pipe or the second conduit of the second pipe to supply fluid to the hose (H), a first moving device in which the first pipe is disposed to move the first pipe with respect to the second pipe ; and a second moving device in which the second pipe is disposed to move the second pipe with respect to the first pipe . wherein an outer diameter (D'1) of the first jig is the same as an inner diameter (D1) of one end of the hose (H), wherein an outer diameter (D'2) of the second jig is the same as an inner diameter (D2) of the other end of the hose (H), and wherein the hose (H) is formed by a blow molding method of injecting air in a state in which a heated material is injected into a mold. a first pipe including a first body , a first conduit formed inside the first body and extended in the same direction as an extension direction of the first body , and a first jig connected to the first conduit and protruded from the first body to be inserted into a one end part of the hose (H); a second pipe including a second body , a second conduit formed inside the second body and extended in the same direction as an extension direction of the second body , and a second jig connected to the second conduit and protruded from the second body to be inserted into the other end part of the hose (H); a fluid supply device connected to at least one of the first conduit of the first pipe or the second conduit of the second pipe to supply fluid to the hose (H), a first moving device in which the first pipe is disposed to move the first pipe with respect to the second pipe ; and a second moving device in which the second pipe is disposed to move the second pipe with respect to the first pipe . wherein an outer diameter (D'1) of the first jig is the same as an inner diameter (D1) of one end of the hose (H), wherein an outer diameter (D'2) of the second jig is the same as an inner diameter (D2) of the other end of the hose (H), and wherein the hose (H) is formed by a blow molding method of injecting air in a state in which a heated material is injected into a mold.
An air conditioner control method, characterized in comprising: determining whether a local air conditioner detects a positioning marker(S101); determining whether there are any other air conditioner that detect the positioning marker simultaneously with the local air conditioner, in the case that the local air conditioner detects the positioning marker(S102); and determining a position relation between the local air conditioner and the other air conditioner according to the positioning marker, in the case that the air conditioner detect the positioning marker simultaneously with the local air conditioner(S103). determining whether a local air conditioner detects a positioning marker(S101); determining whether there are any other air conditioner that detect the positioning marker simultaneously with the local air conditioner, in the case that the local air conditioner detects the positioning marker(S102); and determining a position relation between the local air conditioner and the other air conditioner according to the positioning marker, in the case that the air conditioner detect the positioning marker simultaneously with the local air conditioner(S103).
A microwave quantum circuit system comprising: a dielectric substrate ; a quantum circuit device on the dielectric substrate , the quantum circuit device comprising a Josephson junction; and an impedance matching circuit device on the dielectric substrate and coupled to the quantum circuit device, the impedance matching circuit device comprising a ladder network of inductors and shunt capacitors ; wherein the quantum circuit device comprises a parametric amplifier configured to: provide a gain of at least four dB to microwave signals over a bandwidth greater than five hundred MHz, and provide gain to microwave signals having a nominal frequency between four and ten GHz. a dielectric substrate ; a quantum circuit device on the dielectric substrate , the quantum circuit device comprising a Josephson junction; and an impedance matching circuit device on the dielectric substrate and coupled to the quantum circuit device, the impedance matching circuit device comprising a ladder network of inductors and shunt capacitors ; wherein the quantum circuit device comprises a parametric amplifier configured to: provide a gain of at least four dB to microwave signals over a bandwidth greater than five hundred MHz, and provide gain to microwave signals having a nominal frequency between four and ten GHz. provide a gain of at least four dB to microwave signals over a bandwidth greater than five hundred MHz, and provide gain to microwave signals having a nominal frequency between four and ten GHz.
Composite profiled element , in particular composite profiled element in fire-protection design, for a fixed frame or a leaf frame of a window , a door or a facade element, having at least one metal profile, in particular at least one light metal profile, and an insulating web which is connected to the metal profile and has at least one edge-side foot which is held in at least one first groove of the metal profile, wherein a first groove wall of the metal profile bounding the first groove has at least one integrally formed web which, together with the first groove wall, bounds at least one second groove having a base wall, two side walls and a groove opening, such that the first groove wall forms the base wall of the second groove, wherein the first groove has at least one base wall, two side walls and a groove opening, wherein the first groove wall forms a longitudinal leg or side wall of the first groove, and wherein the second groove has a groove opening which, when the insulating web is aligned horizontally, is arranged above or below the foot of the insulating web, wherein the first groove wall bounding the first groove has at least one projection which projects into the first groove, wherein the projection is pressed onto or into the material of the edge-side foot of the insulating web, wherein the first groove wall forms the bottom of the second groove, characterized in that the second groove has, on one or more side walls, at least one notch for the positive fixing of a frame element.
A method for processing a laterite-nickel ore, comprising steps of: subjecting the laterite-nickel ore to first leaching with sulfuric acid, so as to obtain a first leachate; subjecting the first leachate to iron-aluminum (Fe-Al) precipitation and nickel-cobalt (Ni-Co) precipitation, so as to obtain a Fe-Al slag and a Ni-Co hydroxide precipitate; recycling nickel and cobalt from the Ni-Co hydroxide precipitate; recycling scandium from the Fe-Al slag, wherein the step of recycling scandium from the Fe-Al slag comprises: subjecting the Fe-Al slag to second leaching with sulfuric acid, so as to obtain a second leachate containing iron, aluminum and scandium; extracting scandium from the second leachate with an organic extractant, so as to obtain a scandium-containing organic phase; subjecting the scandium-containing organic phase to back-extraction with a monovalent acid, so as to obtain a strip liquor; mixing the strip liquor with a precipitant, so as to obtain a scandium-containing precipitate; and calcining the scandium-containing precipitate, so as to obtain scandium oxide. subjecting the laterite-nickel ore to first leaching with sulfuric acid, so as to obtain a first leachate; subjecting the first leachate to iron-aluminum (Fe-Al) precipitation and nickel-cobalt (Ni-Co) precipitation, so as to obtain a Fe-Al slag and a Ni-Co hydroxide precipitate; recycling nickel and cobalt from the Ni-Co hydroxide precipitate; recycling scandium from the Fe-Al slag, wherein the step of recycling scandium from the Fe-Al slag comprises: subjecting the Fe-Al slag to second leaching with sulfuric acid, so as to obtain a second leachate containing iron, aluminum and scandium; extracting scandium from the second leachate with an organic extractant, so as to obtain a scandium-containing organic phase; subjecting the scandium-containing organic phase to back-extraction with a monovalent acid, so as to obtain a strip liquor; mixing the strip liquor with a precipitant, so as to obtain a scandium-containing precipitate; and calcining the scandium-containing precipitate, so as to obtain scandium oxide. subjecting the Fe-Al slag to second leaching with sulfuric acid, so as to obtain a second leachate containing iron, aluminum and scandium; extracting scandium from the second leachate with an organic extractant, so as to obtain a scandium-containing organic phase; subjecting the scandium-containing organic phase to back-extraction with a monovalent acid, so as to obtain a strip liquor; mixing the strip liquor with a precipitant, so as to obtain a scandium-containing precipitate; and calcining the scandium-containing precipitate, so as to obtain scandium oxide.
An article comprising a ligand functionalized substrate, the ligand functionalized substrate comprising a reaction product of a) a substrate having grafted electrophilic functional groups extending from a surface of the substrate, wherein the electrophilic functional groups are reactive to an amine or imine group and b) a ligand compound: wherein: each R 4 is individually H, alkyl or aryl, each R 6 is individually alkylene or arylene, c is zero or an integer from 1 to 500, and d is zero or 1, with the proviso that when d is zero, then c is 1 to 500 ; wherein the article further comprises a grafted ionic or hydrophilic group. each R 4 is individually H, alkyl or aryl, each R 6 is individually alkylene or arylene, c is zero or an integer from 1 to 500, and d is zero or 1, with the proviso that when d is zero, then c is 1 to 500 ; wherein the article further comprises a grafted ionic or hydrophilic group.
A system for mobile network malware detection, the system comprising: means for, tracking a request generated by a client on a mobile device to identify associated locations of the request, wherein the client is a mobile application running on the mobile device, and wherein the associated locations are used to identify suspicious destinations based on the client making the request relative to a specified destination of the request; means for, analyzing the associated locations of the request generated by the client, wherein the associated locations include one or more of an originating location of the request, an intermediate location of the request, and a destination location of the request; means for, extracting the specified destination of the request from the associated locations; means for, determining whether the specified destination matches an expected destination based on the client that is, or is appearing to, make the request, wherein a plurality of expected destinations for commonly used clients is maintained by the system, and wherein the expected destinations for commonly used clients are used for comparison to the expected destination based on the client that is, or is appearing to, make the request; and means for, if it has been determined that the specified destination does not match the expected destination, determining that the request constitutes malicious traffic or potentially malicious traffic and blocking the request and other requests of the client. means for, tracking a request generated by a client on a mobile device to identify associated locations of the request, wherein the client is a mobile application running on the mobile device, and wherein the associated locations are used to identify suspicious destinations based on the client making the request relative to a specified destination of the request; means for, analyzing the associated locations of the request generated by the client, wherein the associated locations include one or more of an originating location of the request, an intermediate location of the request, and a destination location of the request; means for, extracting the specified destination of the request from the associated locations; means for, determining whether the specified destination matches an expected destination based on the client that is, or is appearing to, make the request, wherein a plurality of expected destinations for commonly used clients is maintained by the system, and wherein the expected destinations for commonly used clients are used for comparison to the expected destination based on the client that is, or is appearing to, make the request; and means for, if it has been determined that the specified destination does not match the expected destination, determining that the request constitutes malicious traffic or potentially malicious traffic and blocking the request and other requests of the client.
Fastening device for a sensor housing , having - an engagement region , which is designed to provide an engagement for an external fastening element for a fastening of the fastening device via the external fastening element ; - a connecting region , which is designed to provide a splash-proof and dust-proof connection between fastening device and sensor housing ; and - a pressure-equalizing line , which is designed to permit pressure equalization between an interior of the sensor housing and an environment of the fastening device , wherein, in the connected state of fastening device and sensor housing , the pressure-equalizing line has at least one environment opening to the environment of the fastening device and at least one housing opening in the connecting region in such a manner that the pressure equalization between the interior of the sensor housing and the environment is possible by the pressure-equalizing line via the environment opening and the housing opening , and wherein the engagement region is designed in such a manner that the sensor housing can be hung on the engagement region via the fastening device , wherein the engagement region is designed as a hook or holding ring, and wherein the at least one environment opening of the pressure-equalizing line is formed on an outer surface of the hook or holding ring in such a manner that the external fastening element can engage in the hook or holding ring such that the environment opening is partially covered. - an engagement region , which is designed to provide an engagement for an external fastening element for a fastening of the fastening device via the external fastening element ; - a connecting region , which is designed to provide a splash-proof and dust-proof connection between fastening device and sensor housing ; and - a pressure-equalizing line , which is designed to permit pressure equalization between an interior of the sensor housing and an environment of the fastening device , wherein the engagement region is designed as a hook or holding ring, and wherein the at least one environment opening of the pressure-equalizing line is formed on an outer surface of the hook or holding ring in such a manner that the external fastening element can engage in the hook or holding ring such that the environment opening is partially covered.