mhurhangee/patent-ind-claim-en huggingface dataset:
A fuselage-embedded fuel tank system comprising: an elongated aircraft fuselage , comprising a plurality of frame members , a pair of keel beams and a pair of roof beams , wherein the frame members are connected at opposite sides of top portions thereof to the roof beams and at opposite sides of bottom portions thereof to the keel beams ; and an embedded fuel tank comprising a pressure vessel for storing fuel for an aircraft, the fuel tank disposed within the fuselage and extending a majority of a length of the fuselage , wherein a center of gravity of the fuel tank is substantially aligned with a center of gravity of the fuselage ; wherein the frame members surround and provide support for the fuel tank , a payload bay area is disposed beneath the fuel tank and the bottom of the frame members that support the fuel tank , and the frame members extend between an outer mold line of the fuselage and the fuel tank . an elongated aircraft fuselage , comprising a plurality of frame members , a pair of keel beams and a pair of roof beams , wherein the frame members are connected at opposite sides of top portions thereof to the roof beams and at opposite sides of bottom portions thereof to the keel beams ; and an embedded fuel tank comprising a pressure vessel for storing fuel for an aircraft, the fuel tank disposed within the fuselage and extending a majority of a length of the fuselage , wherein a center of gravity of the fuel tank is substantially aligned with a center of gravity of the fuselage ; wherein the frame members surround and provide support for the fuel tank , a payload bay area is disposed beneath the fuel tank and the bottom of the frame members that support the fuel tank , and the frame members extend between an outer mold line of the fuselage and the fuel tank .
A method for electrostatic coating of a substrate , comprising the steps of: supplying a working fluid at between 0.5 bar and 10 bar in a container containing an amount of coating powder ; extracting from said container a first flow made up of working fluid and powder; atomizing said flow of working fluid and powder with a jet of working fluid at a pressure of between 0.5 bar and 10 bar; supplying working fluid at a pressure of between 0.5 bar and 10 bar to create a second transport flow made up of working fluid and atomized powder; charging said second flow of working fluid and atomized powder electrostatically under pressure; and sending said second flow of working fluid and atomized electrostatically charged powder onto a substrate , said method being characterized in that: said working fluid is a mixture made up of nitrogen in a range of 80-98%, oxygen in a range of 1-19%, argon in a range of 1-2%; said mixture is obtained continuously during coating by taking air from the environment and depriving it of residual substances not comprised in said composition; and said working mixture is electrostatically pre-charged upstream of entry into said container with positive and/or negative ions according to the desired final electrostatic charge. supplying a working fluid at between 0.5 bar and 10 bar in a container containing an amount of coating powder ; extracting from said container a first flow made up of working fluid and powder; atomizing said flow of working fluid and powder with a jet of working fluid at a pressure of between 0.5 bar and 10 bar; supplying working fluid at a pressure of between 0.5 bar and 10 bar to create a second transport flow made up of working fluid and atomized powder; charging said second flow of working fluid and atomized powder electrostatically under pressure; and sending said second flow of working fluid and atomized electrostatically charged powder onto a substrate , said working fluid is a mixture made up of nitrogen in a range of 80-98%, oxygen in a range of 1-19%, argon in a range of 1-2%; said mixture is obtained continuously during coating by taking air from the environment and depriving it of residual substances not comprised in said composition; and said working mixture is electrostatically pre-charged upstream of entry into said container with positive and/or negative ions according to the desired final electrostatic charge.
Non-degerminated cereal mash and/or pseudocereal mash, characterized in that the mash is aerated, has been inoculated with at least one species from the group of acetic acid bacteria consisting of Gluconobacter, Gluconacetobacter, Acidomonas, Kozakia, Neoasaia, Asaia, Swaminathania, Saccharibacter and Frateuria, and the mash contains metabolic products, namely acetic acid, gluconic acid and exopolysaccharides formed by at least one species from the group of acetic acid bacteria consisting of Gluconobacter, Gluconacetobacter, Acidomonas, Kozakia, Neoasaia, Asaia, Swaminathania, Saccharibacter and Frateuria, said metabolic products having been formed from an added proportion of 1.5 - 10% saccharose relative to the employed amount of flour in the mash, and the mash having a concentration of the acetic acid bacteria with a live germ count of 10e8 per ml.
Use as perfuming ingredient of a compound of formula in the form of any one of its stereoisomers or a mixture thereof, wherein the dotted lines represent a carbon-carbon single bond or a carbon-carbon a double bond; and one R 1 group represents a hydrogen atom and the second R 1 group represents a methyl group.
A solenoid switch comprising: a housing ; stationary terminals fixed to the housing ; and a movable terminal adapted to be movable between a first state and a second state, the movable terminal being away from electric contact with the stationary terminals when the movable terminal is in the first state, and the movable terminal being in electric contact with the stationary terminals when the movable terminal is in the second state; wherein at least one of the stationary terminals and the movable terminal comprises a copper alloy material which contains tellurium and nickel, characterised in that the copper alloy material comprises 0.2 wt % to 0.6 wt % of tellurium, 1.0 wt % to 1.5 wt % of nickel and 0.1 wt % to 0.5 wt % of phosphorus. a housing ; stationary terminals fixed to the housing ; and a movable terminal adapted to be movable between a first state and a second state, the movable terminal being away from electric contact with the stationary terminals when the movable terminal is in the first state, and the movable terminal being in electric contact with the stationary terminals when the movable terminal is in the second state; wherein at least one of the stationary terminals and the movable terminal comprises a copper alloy material which contains tellurium and nickel, characterised in that the copper alloy material comprises 0.2 wt % to 0.6 wt % of tellurium, 1.0 wt % to 1.5 wt % of nickel and 0.1 wt % to 0.5 wt % of phosphorus.
Use of a magnetic graphene oxide as a viscosity reduction system for microwave extraction of heavy oil.
A method performed by a node in a network, the method comprising: managing, at the node, a Machine to Machine, M2M, service layer session established between an M2M service layer instance of the node and a first application executing on a first device in the network, wherein the service layer session further enables service layer communication between a second application in the network and the first application executing on the first device; and in response to a trigger condition indicating that the service layer session between the second application and the first application is to be migrated to or shared with a third application in the network, coordinating with an underlying access network node to migrate, with the migrated or shared service layer session, a first underlying network connection between the first device and the second application to a second underlying network connection between the first device and the third application; wherein the node is configured to share service layer session schedule information with the underlying access network node, wherein the underlying access network node is configured to use the service layer session schedule information to migrate the first underlying access network connection between the first device and the second application to the second underlying network connection between the first device and the third application. managing, at the node, a Machine to Machine, M2M, service layer session established between an M2M service layer instance of the node and a first application executing on a first device in the network, wherein the service layer session further enables service layer communication between a second application in the network and the first application executing on the first device; and in response to a trigger condition indicating that the service layer session between the second application and the first application is to be migrated to or shared with a third application in the network, coordinating with an underlying access network node to migrate, with the migrated or shared service layer session, a first underlying network connection between the first device and the second application to a second underlying network connection between the first device and the third application; wherein the node is configured to share service layer session schedule information with the underlying access network node, wherein the underlying access network node is configured to use the service layer session schedule information to migrate the first underlying access network connection between the first device and the second application to the second underlying network connection between the first device and the third application.
A housing for an electrical machine , the housing comprising an outer layer of stainless steel, characterized in that the outer layer has an outer surface with an emissivity of more than 0.4 and a surface roughness of less than 2 μm.
A freezing cylinder for use in a semi-frozen product dispensing apparatus, the freezing cylinder comprising: an inner cylinder having an inlet end and an outlet end; an outer cylinder having an inlet end and an outlet end, wherein the outer cylinder is disposed coaxially over the inner cylinder ; a plurality of microchannels on an exterior surface of the inner cylinder that extend parallel with a longitudinal axis of the inner cylinder , wherein the plurality of microchannels are located between the inner cylinder and outer cylinder ; a first inlet header around the circumference of the inner cylinder , wherein the first inlet header is located near the inlet end of the inner cylinder ; a second inlet header around the circumference of the inner cylinder , wherein the second inlet header is located between the first inlet header and the plurality of microchannels , wherein the second inlet header is in fluid communication with the plurality of microchannels ; a header ridge located between first inlet header and the second inlet header , wherein the header ridge is configured to prevent fluid flow from the first inlet header to the second inlet header ; a plurality of orifices in the header ridge that are configured to allow fluid flow from the first inlet header to the second inlet header ; and an outlet header around the circumference of the inner cylinder , wherein the outlet header is located near the outlet end of the inner cylinder , wherein the outlet header is in fluid communication with the plurality of microchannels . an inner cylinder having an inlet end and an outlet end; an outer cylinder having an inlet end and an outlet end, wherein the outer cylinder is disposed coaxially over the inner cylinder ; a plurality of microchannels on an exterior surface of the inner cylinder that extend parallel with a longitudinal axis of the inner cylinder , wherein the plurality of microchannels are located between the inner cylinder and outer cylinder ; a first inlet header around the circumference of the inner cylinder , wherein the first inlet header is located near the inlet end of the inner cylinder ; a second inlet header around the circumference of the inner cylinder , wherein the second inlet header is located between the first inlet header and the plurality of microchannels , wherein the second inlet header is in fluid communication with the plurality of microchannels ; a header ridge located between first inlet header and the second inlet header , wherein the header ridge is configured to prevent fluid flow from the first inlet header to the second inlet header ; a plurality of orifices in the header ridge that are configured to allow fluid flow from the first inlet header to the second inlet header ; and an outlet header around the circumference of the inner cylinder , wherein the outlet header is located near the outlet end of the inner cylinder , wherein the outlet header is in fluid communication with the plurality of microchannels .
A method of producing a non-human mammalian sperm sample suitable for in vitro fertilisation, including the step of: obtaining sperm cells; and characterised in that the method further includes the steps of: cryopreserving the sperm cells; thawing the sperm cells; sorting the sperm cells; cryopreserving the sperm cells; thawing the twice cryopreserved sperm cells; and establishing a sperm sample from the twice cryopreserved sperm cells; wherein the sperm sample is comprised of a sample selected from the group consisting of a straw, a pellet, an insemination dose, and a prepared sperm sample. cryopreserving the sperm cells; thawing the sperm cells; sorting the sperm cells; cryopreserving the sperm cells; thawing the twice cryopreserved sperm cells; and establishing a sperm sample from the twice cryopreserved sperm cells; wherein the sperm sample is comprised of a sample selected from the group consisting of a straw, a pellet, an insemination dose, and a prepared sperm sample.
A dual-interface card comprising: a metal layer having a first surface and a second surface extending parallel to each other; an opening in said metal layer configured to receive a plug formed of non-RF-impeding material and a dual-interface integrated circuit (IC) module , the dual-interface IC module having contacts and including RF transmission means for enabling contact and contactless operation of the card; and at least one additional layer stacked relative to the plug , wherein the opening is defined by a first cut out region in said first surface , the first cut out region configured to receive the IC module, and a second cut out region extending from said second surface and extending vertically from the first surface and symmetrical with respect to the first cut out region , the second cut out region configured to receive the plug, characterized in that the first cut out region has a first area, and a first perimeter, and the second cut out region has a second area and a second perimeter that are greater than the first area and the first perimeter, respectively, wherein the plug has a perimeter larger than a perimeter of the IC module. a metal layer having a first surface and a second surface extending parallel to each other; an opening in said metal layer configured to receive a plug formed of non-RF-impeding material and a dual-interface integrated circuit (IC) module , the dual-interface IC module having contacts and including RF transmission means for enabling contact and contactless operation of the card; and at least one additional layer stacked relative to the plug , wherein the opening is defined by a first cut out region in said first surface , the first cut out region configured to receive the IC module, and a second cut out region extending from said second surface and extending vertically from the first surface and symmetrical with respect to the first cut out region , the second cut out region configured to receive the plug, characterized in that the first cut out region has a first area, and a first perimeter, and the second cut out region has a second area and a second perimeter that are greater than the first area and the first perimeter, respectively, wherein the plug has a perimeter larger than a perimeter of the IC module.
A method for producing a polyacrylic acid-based or polyacrylic acid salt-based water absorbent resin, which sequentially comprises: a polymerization step, in which a monomer aqueous solution containing acrylic acid or acrylic acid salt as a main component is polymerized, a drying step, in which a water-containing gel-like crosslinked polymer obtained in the polymerization step is dried, and a classification step, in which a polymer obtained in the drying step is classified, wherein a rocking-type sieve classification apparatus is used in the classification step, and the rocking-type sieve classification apparatus has a sieve net having a trajectory and a rotation speed in the following ranges; radial gradient R: from 5 to 40 mm, tangential gradient T: from 0.1 to 25 mm, eccentric gradient E: from 40 to 80 mm, rotation speed F: from 60 to 600 rpm characterized in that a double screen comprising two or more sieve nets each having substantially the same opening, i.e. each having an opening in the range of ±2% relative to an intended opening, is used in the rocking-type sieve classification apparatus . a polymerization step, in which a monomer aqueous solution containing acrylic acid or acrylic acid salt as a main component is polymerized, a drying step, in which a water-containing gel-like crosslinked polymer obtained in the polymerization step is dried, and a classification step, in which a polymer obtained in the drying step is classified, wherein a rocking-type sieve classification apparatus is used in the classification step, and the rocking-type sieve classification apparatus has a sieve net having a trajectory and a rotation speed in the following ranges; radial gradient R: from 5 to 40 mm, tangential gradient T: from 0.1 to 25 mm, eccentric gradient E: from 40 to 80 mm, rotation speed F: from 60 to 600 rpm
A monitor that monitors a state of an organism internal part from a surface of the organism , comprising: a probe including an observation window attached to the surface of the organism ; a laser emission unit that includes an optical path that guides Stokes light and an optical path that guides pump light , combines the Stokes light and the pump light and emits the combined laser light onto at least a part of an observation region on the surface of the organism accessed via the observation window ; a detection unit that detects Coherent Anti-stokes Raman Spectroscopy, CARS, light caused by emission of the laser light from each of a plurality of observation spots that are either intermittently dispersed in two dimensions in the observation region or are continuously formed so as to scan the observation region ; a limiting unit that limits, or locks onto first observation spots from the plurality of observation spots , where it is evaluated that information on a target part of the organism internal part can be obtained from the CARS light from said first observation spots ; and a unit that acquires spectra of at least one component from the first observation spots or peripheries of the first observation spots and outputs first information showing the state of the organism internal part based on intensities of the spectra, wherein the probe includes an output unit that guides the Stokes light and the pump light from the laser emission unit and emits the Stokes light and the pump light to each of the plurality of spots selectively to intersect the Stokes light and the pump light at a depth in the organism . a probe including an observation window attached to the surface of the organism ; a laser emission unit that includes an optical path that guides Stokes light and an optical path that guides pump light , combines the Stokes light and the pump light and emits the combined laser light onto at least a part of an observation region on the surface of the organism accessed via the observation window ; a detection unit that detects Coherent Anti-stokes Raman Spectroscopy, CARS, light caused by emission of the laser light from each of a plurality of observation spots that are either intermittently dispersed in two dimensions in the observation region or are continuously formed so as to scan the observation region ; a limiting unit that limits, or locks onto first observation spots from the plurality of observation spots , where it is evaluated that information on a target part of the organism internal part can be obtained from the CARS light from said first observation spots ; and a unit that acquires spectra of at least one component from the first observation spots or peripheries of the first observation spots and outputs first information showing the state of the organism internal part based on intensities of the spectra, wherein the probe includes an output unit that guides the Stokes light and the pump light from the laser emission unit and emits the Stokes light and the pump light to each of the plurality of spots selectively to intersect the Stokes light and the pump light at a depth in the organism .
A base station comprising a control device , the control device comprising: a relay processing unit configured to perform relay processing of communication performed between a service provider device and a terminal device , the service provider device providing a service to the terminal device and being provided in a radio access network; and a conversion processing unit configured to perform processing for converting an internal IP address assigned to the terminal device into an external IP address assigned to the terminal device and viceversa, wherein in the relay processing, the relay processing unit is configured to transmit said communication to the terminal device with use of said internal IP address and to the service provider device with use of said external IP address, wherein the control device further comprises an information exchange unit configured to exchange information with another base station relating to handover of the terminal device , the exchanged information indicating a correspondence between said internal IP address and said external IP address. a relay processing unit configured to perform relay processing of communication performed between a service provider device and a terminal device , the service provider device providing a service to the terminal device and being provided in a radio access network; and a conversion processing unit configured to perform processing for converting an internal IP address assigned to the terminal device into an external IP address assigned to the terminal device and viceversa, wherein in the relay processing, the relay processing unit is configured to transmit said communication to the terminal device with use of said internal IP address and to the service provider device with use of said external IP address, wherein the control device further comprises an information exchange unit configured to exchange information with another base station relating to handover of the terminal device , the exchanged information indicating a correspondence between said internal IP address and said external IP address.
Dough processing machine for treating products in the food industry, said dough processing machine comprising at least two workstations (101 - 107) arranged successively along a transport path of products, where the operation of the workstation, in the direction of transport being the first one, depends on a first performance parameter L 1 , and the operation of the workstation, in the direction of transport being the second one, depends on a second performance parameter L 2 , a control unit which is connected to said workstations (101 - 107) for adjusting the performance parameters, characterized by an input device connected to said control unit via which a factor F = L 1 L 2 can be adjusted, where said control unit is configured to adjust the performance parameters of said first and said second workstation as a function of F and to leave all other factors F nm = L n L m unchanged, where L n , L m are performance parameters of different workstations n, m of the dough processing machine.