mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing multi-poled piezoelectric devices with a first poling direction and a second poling direction different from the first poling direction from a first piezoelectric device, the method comprising: a) providing a first piezoelectric device , the first piezoelectric device comprising: a first bottom electrode , a first piezoelectric layer , a first top electrode , and a first substrate ; b) separating the first piezoelectric device into a plurality of piezoelectric devices by etching one or more of the first bottom electrode, the first piezoelectric layer, or the first top electrode, wherein each of the plurality of piezoelectric devices comprises a bottom electrode, a piezoelectric layer, and a top electrode; c) generating one or more vertical interconnect access vias by etching the first piezoelectric layer and the first top electrode and stopping the etching at a top surface of the first bottom electrode; d) generating independent bottom electrodes by etching the first piezoelectric layer, the first top electrode, and the first bottom electrode and stopping the etching at a top surface of a dielectric layer ; and e) depositing a re-distribution layer, RDL, over the first piezoelectric device and the one or more vertical interconnect access vias, wherein step e) comprises: i) depositing a RDL dielectric layer over the first piezoelectric device; and ii) depositing a RDL conductor layer over the RDL dielectric layer. a) providing a first piezoelectric device , the first piezoelectric device comprising: a first bottom electrode , a first piezoelectric layer , a first top electrode , and a first substrate ; b) separating the first piezoelectric device into a plurality of piezoelectric devices by etching one or more of the first bottom electrode, the first piezoelectric layer, or the first top electrode, wherein each of the plurality of piezoelectric devices comprises a bottom electrode, a piezoelectric layer, and a top electrode; c) generating one or more vertical interconnect access vias by etching the first piezoelectric layer and the first top electrode and stopping the etching at a top surface of the first bottom electrode; d) generating independent bottom electrodes by etching the first piezoelectric layer, the first top electrode, and the first bottom electrode and stopping the etching at a top surface of a dielectric layer ; and e) depositing a re-distribution layer, RDL, over the first piezoelectric device and the one or more vertical interconnect access vias,
A two-component structural adhesive composition comprising: (a) a first component comprising: an epoxy-adduct that is the reaction product of reactants comprising a first epoxy compound, a polyol, and an anhydride and/or a diacid; and a second epoxy compound; and (b) a second component that chemically reacts with said first component, wherein the composition comprises a reinforcement filler comprising fiberglass. (a) a first component comprising: an epoxy-adduct that is the reaction product of reactants comprising a first epoxy compound, a polyol, and an anhydride and/or a diacid; and a second epoxy compound; and an epoxy-adduct that is the reaction product of reactants comprising a first epoxy compound, a polyol, and an anhydride and/or a diacid; and a second epoxy compound; and (b) a second component that chemically reacts with said first component,
A sensor assembly for a cooking chamber of a microwave oven, the sensor assembly comprising: at least one energy consuming part comprising at least one sensor comprising a first sensor configured to measure a first property of a first item in the cooking chamber; an energy harvesting part configured to harvest energy from microwave radiation within the cooking chamber, the energy harvesting part comprising a microwave antenna having a predetermined tuning frequency for generating an RF antenna signal in response to microwave radiation at a predetermined excitation frequency; and an energy supply part configured to supply energy from the energy harvesting part to the at least one energy consuming part , the energy supply part comprising a dc power supply circuit coupled to the RF antenna signal, the dc power supply circuit being configured to produce a power supply voltage by rectifying and extracting energy from the RF antenna signal; characterised in that the sensor assembly being configured to: obtain first information indicative of availability of microwave radiation at the energy harvesting part ; and control at least one energy consuming operation of at least one of the at least one energy consuming part in response to the first information. at least one energy consuming part comprising at least one sensor comprising a first sensor configured to measure a first property of a first item in the cooking chamber; an energy harvesting part configured to harvest energy from microwave radiation within the cooking chamber, the energy harvesting part comprising a microwave antenna having a predetermined tuning frequency for generating an RF antenna signal in response to microwave radiation at a predetermined excitation frequency; and an energy supply part configured to supply energy from the energy harvesting part to the at least one energy consuming part , the energy supply part comprising a dc power supply circuit coupled to the RF antenna signal, the dc power supply circuit being configured to produce a power supply voltage by rectifying and extracting energy from the RF antenna signal; characterised in that the sensor assembly being configured to: obtain first information indicative of availability of microwave radiation at the energy harvesting part ; and control at least one energy consuming operation of at least one of the at least one energy consuming part in response to the first information. obtain first information indicative of availability of microwave radiation at the energy harvesting part ; and control at least one energy consuming operation of at least one of the at least one energy consuming part in response to the first information.
A method for removing debris from a gas turbine engine comprising: providing a particle extraction duct including an inlet connected to the fore of a compressor section and an outlet connected to a fan duct ; passing debris from an expected debris path through said inlet and through said outlet ; and expelling the debris out an aft end of the fan duct , wherein the gas turbine engine comprises, a core including a primary flowpath , the primary flowpath having a steep radially inward turn upstream of a compressor inlet and downstream of a primary flowpath inlet , characterised in that : an inlet of the particle extraction duct is positioned at a base of the steep radially inward turn; and the steep radially inward turn includes an outer diameter radius change in excess of 20% of a span of a core inlet guide vane from the primary flowpath inlet to a compressor inlet. providing a particle extraction duct including an inlet connected to the fore of a compressor section and an outlet connected to a fan duct ; passing debris from an expected debris path through said inlet and through said outlet ; and expelling the debris out an aft end of the fan duct , wherein the gas turbine engine comprises, a core including a primary flowpath , the primary flowpath having a steep radially inward turn upstream of a compressor inlet and downstream of a primary flowpath inlet , an inlet of the particle extraction duct is positioned at a base of the steep radially inward turn; and the steep radially inward turn includes an outer diameter radius change in excess of 20% of a span of a core inlet guide vane from the primary flowpath inlet to a compressor inlet.
Method for preparation of a sample of a formulation for subsequent endotoxin determination, the formulation suspected of comprising an endotoxin, the formulation preferentially being a pharmaceutical formulation, wherein factors or inhibitory components interfering with endotoxin determination methods are removed from the formulation ; the method comprising the following steps: - application of the sample to an endotoxin-free centrifugation column containing a size exclusion chromatography gel matrix that has been equilibrated with a suitable equilibration buffer ; - wherein a size exclusion chromatography gel matrix with a size exclusion volume or exclusion cut-off within the range of 2.000 Dalton to 20.000 Dalton is used, especially wherein the size exclusion chromatography gel matrix or resin has a size exclusion volume or exclusion cut-off between 4.000 Dalton to 7.000 Dalton, especially below 6.000 Dalton; - and wherein the size exclusion chromatography gel matrix has a high mechanical stability at centrifugation forces of up to 1.800g; - elution of a flow through of the sample by centrifugation, - wherein the centrifugation step separates monomeric LPS, large LPS complex or LPS aggregate from the small components of the formulation ; - wherein the small components remain within the size exclusion chromatography gel matrix and wherein - the monomeric LPS, large LPS complex or LPS aggregate can be found after the centrifugation step in the flow through ; - which flow through can then be used for endotoxin determination. - application of the sample to an endotoxin-free centrifugation column containing a size exclusion chromatography gel matrix that has been equilibrated with a suitable equilibration buffer ; - wherein a size exclusion chromatography gel matrix with a size exclusion volume or exclusion cut-off within the range of 2.000 Dalton to 20.000 Dalton is used, especially wherein the size exclusion chromatography gel matrix or resin has a size exclusion volume or exclusion cut-off between 4.000 Dalton to 7.000 Dalton, especially below 6.000 Dalton; - and wherein the size exclusion chromatography gel matrix has a high mechanical stability at centrifugation forces of up to 1.800g; - elution of a flow through of the sample by centrifugation, - wherein the centrifugation step separates monomeric LPS, large LPS complex or LPS aggregate from the small components of the formulation ; - wherein the small components remain within the size exclusion chromatography gel matrix and wherein - the monomeric LPS, large LPS complex or LPS aggregate can be found after the centrifugation step in the flow through ; - which flow through can then be used for endotoxin determination.
A method, comprising: receiving , by an ingress network device associated with a first leaf domain network of a multi-domain network, a core domain network segment identifier associated with a core domain network of the multi-domain network; receiving , by the ingress network device, location data of an egress network device associated with a second leaf domain network of the multi-domain network, wherein the location data includes data identifying: the core domain network segment identifier, a second leaf domain network segment identifier associated with the second leaf domain network, and an egress network device segment identifier associated with the egress network device; storing , by the ingress network device, the core domain network segment identifier and the location data; and utilizing , by the ingress network device, the core domain segment identifier and the location data to route traffic to the egress network device. receiving , by an ingress network device associated with a first leaf domain network of a multi-domain network, a core domain network segment identifier associated with a core domain network of the multi-domain network; receiving , by the ingress network device, location data of an egress network device associated with a second leaf domain network of the multi-domain network, wherein the location data includes data identifying: the core domain network segment identifier, a second leaf domain network segment identifier associated with the second leaf domain network, and an egress network device segment identifier associated with the egress network device; the core domain network segment identifier, a second leaf domain network segment identifier associated with the second leaf domain network, and an egress network device segment identifier associated with the egress network device; storing , by the ingress network device, the core domain network segment identifier and the location data; and utilizing , by the ingress network device, the core domain segment identifier and the location data to route traffic to the egress network device.
Accessory (100/200) for a flip flop sandal, wherein said flip flop sandal (C) comprises: - a sole with a walking surface , an upper surface , and at least one top hole with a lower opening ; - an upper comprising a strap shaped like a "V", from which two sections originate, going towards the back of the foot and terminating in two ends , each end being connected to the sole ; - a stud applied in correspondence with said top hole ; accessory (100/200) comprises: - a foot suitable for being housed in the lower opening of the top hole of the sole ; - fastening means for fastening to the upper that are connected to the foot ; characterized in that the fastening means are configured in such a way to be knotted at the vertex (V1) of the strap of the upper ; said fastening means comprising: - an eyelet ; - a stem that connects the eyelet to the foot ; wherein said eyelet and/or said stem are made of a flexible material in such a way that said stem can be bent so as to be inserted through the eyelet , cooperating with said eyelet in order to be knotted around the vertex (V1); and said stem comprises a notch , in proximity to the eyelet , suitably shaped to accommodate a section of the eyelet when the accessory (100/200) is knotted to the upper and the stem is inserted in the eyelet . - a sole with a walking surface , an upper surface , and at least one top hole with a lower opening ; - an upper comprising a strap shaped like a "V", from which two sections originate, going towards the back of the foot and terminating in two ends , each end being connected to the sole ; - a stud applied in correspondence with said top hole ; accessory (100/200) comprises: - a foot suitable for being housed in the lower opening of the top hole of the sole ; - fastening means for fastening to the upper that are connected to the foot ; - a foot suitable for being housed in the lower opening of the top hole of the sole ; - fastening means for fastening to the upper that are connected to the foot ; the fastening means are configured in such a way to be knotted at the vertex (V1) of the strap of the upper ; said fastening means comprising: - an eyelet ; - a stem that connects the eyelet to the foot ; - an eyelet ; - a stem that connects the eyelet to the foot ; wherein said eyelet and/or said stem are made of a flexible material in such a way that said stem can be bent so as to be inserted through the eyelet , cooperating with said eyelet in order to be knotted around the vertex (V1); and said stem comprises a notch , in proximity to the eyelet , suitably shaped to accommodate a section of the eyelet when the accessory (100/200) is knotted to the upper and the stem is inserted in the eyelet .
Antimicrobial liquid concentrate, which comprises: a) - From 5 weight% to 20 weight% of one or a plurality of diols selected from alkanediols having from six to twenty carbon atoms, and monoalkyl glycerol ethers having from four to eighteen carbon atoms; b) - From 20 weight% to 60 weight% of one or a plurality of salts of one or a plurality of organic acids selected from the group composed of sorbic acid, benzoic acid, anisic acid, salicylic acid, 4-hydroxy benzoic acid, cinnamic acid, succinic acid, and levulinic acid, and optionally one or a plurality of the above-mentioned free acids, and, c) - From 30 weight% to 70 weight% of water, wherein the content of aromatic alcohol is a maximum of 5 weight% relative to the weight of the liquid concentrate. a) - From 5 weight% to 20 weight% of one or a plurality of diols selected from alkanediols having from six to twenty carbon atoms, and monoalkyl glycerol ethers having from four to eighteen carbon atoms; b) - From 20 weight% to 60 weight% of one or a plurality of salts of one or a plurality of organic acids selected from the group composed of sorbic acid, benzoic acid, anisic acid, salicylic acid, 4-hydroxy benzoic acid, cinnamic acid, succinic acid, and levulinic acid, and optionally one or a plurality of the above-mentioned free acids, and, c) - From 30 weight% to 70 weight% of water,
A downhole tool comprising: a mandrel having an exterior surface with at least one pocket formed in the exterior surface ; and characterised by : a sleeve having an inner surface and an outer surface , the sleeve being configured to be positioned around the exterior surface of the mandrel to cover the at least one pocket , the sleeve having a first portion positioned opposite the at least one pocket and having second and third portions positioned adjacent to the first portion, wherein the second and third portions of the sleeve are configured to contact the exterior surface of the mandrel upon the application of a pressure external of the sleeve ; wherein the inner surface of the first portion of the sleeve is a conic section that differs from a curvature of the inner surfaces of the second and third portions, and the first portion of the sleeve is configured to distribute stress towards the second and third portions of the sleeve . a sleeve having an inner surface and an outer surface , the sleeve being configured to be positioned around the exterior surface of the mandrel to cover the at least one pocket , the sleeve having a first portion positioned opposite the at least one pocket and having second and third portions positioned adjacent to the first portion, wherein the second and third portions of the sleeve are configured to contact the exterior surface of the mandrel upon the application of a pressure external of the sleeve ; wherein the inner surface of the first portion of the sleeve is a conic section that differs from a curvature of the inner surfaces of the second and third portions, and the first portion of the sleeve is configured to distribute stress towards the second and third portions of the sleeve .
Cooling device for cooling at least one continuous element , having a metal plate with a first side and a second side and having a cooling channel for a cryogenic gas, wherein the at least one element can be guided on the first side of the metal plate , wherein the at least one element is in thermally conductive contact with the first side of the metal plate , wherein the cooling channel is connected in a thermally conductive manner, at least in portions, to the metal plate , in particular to the second side of the metal plate , and wherein the cooling channel has a connection at a first end for an inlet of the cryogenic gas and a connection at a second end for an outlet of the cryogenic gas, wherein the cooling device is furthermore connected to a gas line for the cryogenic gas, which branches off from the cooling channel at an outlet-side end and is configured to conduct cryogenic gas into a region above the first side of the metal plate . wherein the at least one element can be guided on the first side of the metal plate , wherein the at least one element is in thermally conductive contact with the first side of the metal plate , wherein the cooling channel is connected in a thermally conductive manner, at least in portions, to the metal plate , in particular to the second side of the metal plate , and wherein the cooling channel has a connection at a first end for an inlet of the cryogenic gas and a connection at a second end for an outlet of the cryogenic gas, wherein the cooling device is furthermore connected to a gas line for the cryogenic gas, which branches off from the cooling channel at an outlet-side end and is configured to conduct cryogenic gas into a region above the first side of the metal plate .
A method in a computing device for augmenting three-dimensional scene with two-dimensional map data, the method comprising: receiving 3D map data parametrised in a 3D coordinate system for generating a textured 3D scene, the 3D map data including 3D geometry data and imagery texture data; for a specified perspective of a virtual camera in the 3D coordinate system, rendering geometry of the 3D scene using the 3D geometry data, wherein the specified perspective includes a position and orientation relative to the 3D scene; generating, from 2D map data parameterized in a 2D coordinate system associated with projecting a spherical surface onto a flat surface, a map texture by transforming the 2D map data from the 2D coordinate system to the 3D coordinate system in accordance with the perspective of the virtual camera in the 3D coordinate system; and applying (i) the imagery texture and (ii) the map texture to the rendered geometry corresponding to a same geographic area to overlay the 2D map data on the 3D scene; wherein transforming the 2D map data from the 2D coordinate system to the 3D coordinate system comprises performing a linear transformation of the 2D map data from the 2D coordinate system to the 3D coordinate system if the vertical component of the position of the virtual camera is lower than a height threshold and performing a non-linear transformation of the 2D map data from the 2D coordinate system to the 3D coordinate system if the vertical component of the position of the virtual camera is above the height threshold. receiving 3D map data parametrised in a 3D coordinate system for generating a textured 3D scene, the 3D map data including 3D geometry data and imagery texture data; for a specified perspective of a virtual camera in the 3D coordinate system, rendering geometry of the 3D scene using the 3D geometry data, wherein the specified perspective includes a position and orientation relative to the 3D scene; generating, from 2D map data parameterized in a 2D coordinate system associated with projecting a spherical surface onto a flat surface, a map texture by transforming the 2D map data from the 2D coordinate system to the 3D coordinate system in accordance with the perspective of the virtual camera in the 3D coordinate system; and applying (i) the imagery texture and (ii) the map texture to the rendered geometry corresponding to a same geographic area to overlay the 2D map data on the 3D scene; wherein transforming the 2D map data from the 2D coordinate system to the 3D coordinate system comprises performing a linear transformation of the 2D map data from the 2D coordinate system to the 3D coordinate system if the vertical component of the position of the virtual camera is lower than a height threshold and performing a non-linear transformation of the 2D map data from the 2D coordinate system to the 3D coordinate system if the vertical component of the position of the virtual camera is above the height threshold.