mhurhangee/patent-ind-claim-en huggingface dataset:
A method for protecting master and slave access network elements in a data communication network, comprising: detecting, by a master access network element, connectivity between the master access network element and a target network (S301); and characterized in that the method further comprises: when detecting that the master access network element is not connected with the target network, invalidating a master static routing from the master access network element to a network management server and flooding routing change situations (S302), wherein invalidating the master static routing from the master access network element to the network management server comprises deleting the master static routing in a forwarding table maintained by the master access network element or setting a priority of the master static routing to be lower than a priority of a slave static routing from the slave access network element to the network management server. detecting, by a master access network element, connectivity between the master access network element and a target network (S301); and characterized in that the method further comprises: when detecting that the master access network element is not connected with the target network, invalidating a master static routing from the master access network element to a network management server and flooding routing change situations (S302), wherein invalidating the master static routing from the master access network element to the network management server comprises deleting the master static routing in a forwarding table maintained by the master access network element or setting a priority of the master static routing to be lower than a priority of a slave static routing from the slave access network element to the network management server. when detecting that the master access network element is not connected with the target network, invalidating a master static routing from the master access network element to a network management server and flooding routing change situations (S302), wherein invalidating the master static routing from the master access network element to the network management server comprises deleting the master static routing in a forwarding table maintained by the master access network element or setting a priority of the master static routing to be lower than a priority of a slave static routing from the slave access network element to the network management server.
Method for measuring one or more parameters in a water flow in a device in the form of a recirculating shower, said device comprising a fresh water inlet for cold and hot water, which meets a recirculation loop comprising a recirculation water inlet , a flow path for recycled water and a recirculation water outlet , a user outlet in the form of a shower head, a heater and a filter arranged along the recirculation loop, and wherein the device also comprises an off-line bypass loop arrangement which comprises a liquid-stagnant space and which off-line bypass loop arrangement also comprises one or more sensors enabling measuring in the off-line bypass loop arrangement , said method comprising directing part of the water flow to the liquid-stagnant space where the measuring is performed, wherein the liquid-stagnant place is arranged as an off-line bypass loop arrangement comprising a quality measuring cell in the device intended for recycling of water, and wherein the measuring is performed on one or more of the parameters turbidity, conductivity, pH value, ultrasound and microbiological activity. said method comprising directing part of the water flow to the liquid-stagnant space where the measuring is performed, wherein the liquid-stagnant place is arranged as an off-line bypass loop arrangement comprising a quality measuring cell in the device intended for recycling of water, and wherein the measuring is performed on one or more of the parameters turbidity, conductivity, pH value, ultrasound and microbiological activity.
A light emitting system for a motor vehicle , comprising: at least one light pipe ; at least one light source disposed at least partially within an interior of the system; at least one mask providing a desired pattern of illumination of the system, wherein the mask comprises faded marks which are suited to intentionally create brighter or duller areas obtaining a selective brightness to control illumination levels by both the light source and the mask; and a lens substantially enclosing the interior of the system , the at least one light pipe , and the at least one light source , the lens having an inner surface, an outer surface disposed opposite the inner surface and at least one of a continuous transparent or translucent coating on the outer surface, the mask being in direct contact to the coated lens , wherein the at least one light source is configured to emit light by or based on at least receiving electrical power from an electrical power source, the at least one light source being arranged adjacent to and directed towards the at least one light pipe , with the at least one light source receiving electrical power from the electrical power source, the at least one of the continuous transparent or translucent coating is at least partially permeable to at least some light which is emitted by the at least one light source and passed through the lens , and wherein the mask and the lens are separable. at least one light pipe ; at least one light source disposed at least partially within an interior of the system; at least one mask providing a desired pattern of illumination of the system, wherein the mask comprises faded marks which are suited to intentionally create brighter or duller areas obtaining a selective brightness to control illumination levels by both the light source and the mask; and a lens substantially enclosing the interior of the system , the at least one light pipe , and the at least one light source , the lens having an inner surface, an outer surface disposed opposite the inner surface and at least one of a continuous transparent or translucent coating on the outer surface, the mask being in direct contact to the coated lens , wherein the at least one light source is configured to emit light by or based on at least receiving electrical power from an electrical power source, the at least one light source being arranged adjacent to and directed towards the at least one light pipe , with the at least one light source receiving electrical power from the electrical power source, the at least one of the continuous transparent or translucent coating is at least partially permeable to at least some light which is emitted by the at least one light source and passed through the lens , and wherein the mask and the lens are separable.
A memory forming method, comprising providing a substrate , wherein the substrate comprises at least word line structures and active regions , wherein bottom dielectric layers and bit line contact layers located on a top surface of the substrate , the bottom dielectric layers have bit line contact openings exposing the active regions in the substrate , and the bit line contact layers cover the bottom dielectric layers and fill the bit line contact openings ; etching part of the bit line contact layers to form the bit line contact layers of different heights ; forming conductive layers on top surfaces of the bit line contact layers of different heights , top surfaces of the conductive layers being at the same height in a direction perpendicular to an extension direction of the word line structures; and the top surfaces of the conductive layers being at different heights, at all positions in the bit line direction, in the extension direction of the word line structures: forming top dielectric layers on the top surfaces of the conductive layers ; and sequentially etching part of the top dielectric layers , part of the conductive layers , and part of the bit line contact layers of different heights to form discrete bit line structures . wherein bottom dielectric layers and bit line contact layers located on a top surface of the substrate , the bottom dielectric layers have bit line contact openings exposing the active regions in the substrate , and the bit line contact layers cover the bottom dielectric layers and fill the bit line contact openings ; etching part of the bit line contact layers to form the bit line contact layers of different heights ; forming conductive layers on top surfaces of the bit line contact layers of different heights , top surfaces of the conductive layers being at the same height in a direction perpendicular to an extension direction of the word line structures; and the top surfaces of the conductive layers being at different heights, at all positions in the bit line direction, in the extension direction of the word line structures: forming top dielectric layers on the top surfaces of the conductive layers ; and sequentially etching part of the top dielectric layers , part of the conductive layers , and part of the bit line contact layers of different heights to form discrete bit line structures . forming top dielectric layers on the top surfaces of the conductive layers ; and sequentially etching part of the top dielectric layers , part of the conductive layers , and part of the bit line contact layers of different heights to form discrete bit line structures .
A profiled element for laying raised floors, comprising a first flat portion that extends longitudinally and a second portion that extends longitudinally in the same direction as said first portion and is arranged transversely with respect to the arrangement of said first portion , grip protrusions for an adhesive for coverings or floors being defined on said second portion , characterized in that the second portion is a second flat portion , in that the protrusions are constituted by a series of flat longitudinal ribs, which protrude outward with respect to a laying configuration and are inclined with respect to the arrangement of the second portion , and further comprising a flange of said first portion , which extends in prolongation of the first portion and protrudes beyond a line for connection with the second portion .
A method for fabricating a multi-chip module, "MCM", comprising: defining first negative features (116-1, 116-2) on a first surface (112-1) of a first substrate , wherein a given first negative feature is recessed below the first surface and has a first opening, defined by a first edge; disposing a first layer in the first negative features, wherein the first layer includes a hydrophilic material; disposing a second layer in regions of the first surface surrounding the first negative features, wherein the second layer includes a hydrophobic material; placing positive features (124-1, 124-2) on the first layer in the first negative features by immersing the positive features in a de-ionized water solution and guiding the positive features above the first negative features, wherein the positive features protrude above the first surface when placed in the first negative features; defining second negative features (118-1, 118-2) on a second surface (112-1) of a second substrate , which faces the first surface of the first substrate, wherein a given second negative feature is recessed below the second surface and has a second opening, defined by a second edge; and mechanically coupling the second negative features to the positive features so that the first substrate is mechanically coupled to the second substrate. defining first negative features (116-1, 116-2) on a first surface (112-1) of a first substrate , wherein a given first negative feature is recessed below the first surface and has a first opening, defined by a first edge; disposing a first layer in the first negative features, wherein the first layer includes a hydrophilic material; disposing a second layer in regions of the first surface surrounding the first negative features, wherein the second layer includes a hydrophobic material; placing positive features (124-1, 124-2) on the first layer in the first negative features by immersing the positive features in a de-ionized water solution and guiding the positive features above the first negative features, wherein the positive features protrude above the first surface when placed in the first negative features; defining second negative features (118-1, 118-2) on a second surface (112-1) of a second substrate , which faces the first surface of the first substrate, wherein a given second negative feature is recessed below the second surface and has a second opening, defined by a second edge; and mechanically coupling the second negative features to the positive features so that the first substrate is mechanically coupled to the second substrate.
A humanized minibody that binds to CD8 and comprises: a variable heavy (V H ) domain of SEQ ID NO: 48; and a variable light (V L ) domain of SEQ ID NO: 42. a variable heavy (V H ) domain of SEQ ID NO: 48; and a variable light (V L ) domain of SEQ ID NO: 42.
A method for determining specific quantities for the gas quality, in which - a gas or gas mixture flows through an ultrasonic flow sensor and over a microthermal sensor , and the temperature (T) and the pressure (p) of the gas or gas mixture are detected; - the flow velocity (v x ) or volumetric flow as well as the sound velocity (c s ) of the gas or gas mixture are determined by the ultrasonic flow sensor ; - the density of the gas or gas mixture is correlated from the sound velocity (c s ); - the density information, together with the flow velocity, are used for calculating the mass flow; - the thermal conductivity (λ) of the gas or gas mixture at one or several temperatures is determined with the microthermal sensor ; - a flow factor (φ) is calculated from the flow signal of the microthermal sensor in order to determine therefrom, together with the information of the mass flow and thermal conductivity, the thermal capacity ( c p ) or a quantity of the gas or gas mixture dependent on the thermal capacity; - and finally the sound velocity, the thermal conductivity at one or several temperatures and either the thermal capacity or the quantity depending on the thermal capacity are used for correlation of specific quantities for the gas quality, in particular of the calorific value. - a gas or gas mixture flows through an ultrasonic flow sensor and over a microthermal sensor , and the temperature (T) and the pressure (p) of the gas or gas mixture are detected; - the flow velocity (v x ) or volumetric flow as well as the sound velocity (c s ) of the gas or gas mixture are determined by the ultrasonic flow sensor ; - the density of the gas or gas mixture is correlated from the sound velocity (c s ); - the density information, together with the flow velocity, are used for calculating the mass flow; - the thermal conductivity (λ) of the gas or gas mixture at one or several temperatures is determined with the microthermal sensor ; - a flow factor (φ) is calculated from the flow signal of the microthermal sensor in order to determine therefrom, together with the information of the mass flow and thermal conductivity, the thermal capacity ( c p ) or a quantity of the gas or gas mixture dependent on the thermal capacity; - and finally the sound velocity, the thermal conductivity at one or several temperatures and either the thermal capacity or the quantity depending on the thermal capacity are used for correlation of specific quantities for the gas quality, in particular of the calorific value.
A noninvasive method for measuring a skin condition, wherein the skin condition is dandruff, in a subject comprising: a) collecting non-invasively an epithelial cell /skin cell sample from the subject b) detecting a level of an antimicrobial peptide biomarker being S100 protein, wherein the S100 protein is S100A12 in the epithelial cell sample/skin cell sample; c) diagnosing the subject as having a defense mechanism due to microbial attack on skin or a measure of the system being in balance with environment homeostasis based on the level of the antimicrobial peptide biomarker S100A12; d) determining the amount of the antimicrobial peptide biomarker in the epithelial cells as compared to a baseline sample. a) collecting non-invasively an epithelial cell /skin cell sample from the subject b) detecting a level of an antimicrobial peptide biomarker being S100 protein, wherein the S100 protein is S100A12 in the epithelial cell sample/skin cell sample; c) diagnosing the subject as having a defense mechanism due to microbial attack on skin or a measure of the system being in balance with environment homeostasis based on the level of the antimicrobial peptide biomarker S100A12; d) determining the amount of the antimicrobial peptide biomarker in the epithelial cells as compared to a baseline sample.
A method for information configuration, by a first computing device, comprising: searching (S102) for a second computing device within a searching range of devices; and sending (S104) device configuration information to a second searched computing device; wherein the device configuration information comprises a data processing difficulty level, and the data processing difficulty level is used to measure a difficulty level of computing a target solution required by data processing. searching (S102) for a second computing device within a searching range of devices; and sending (S104) device configuration information to a second searched computing device; wherein the device configuration information comprises a data processing difficulty level, and the data processing difficulty level is used to measure a difficulty level of computing a target solution required by data processing.
A medical system, comprising: a medical imaging system configured to generate images of an interventional procedure; an overlay generator configured to generate an overlay image on the images of the interventional procedure, wherein the overlay image includes a three-dimensional anatomical image; and an interventional device tracking system configured to dynamically track a 3D position, orientation and shape of an interventional device during the procedure; wherein the overlay image is dynamically updated in response to deformations caused to an organ of interest by the interventional device during the procedure, said deformations being determined based on sensing of pressure, strain, shear or proximity/contact along said interventional device. a medical imaging system configured to generate images of an interventional procedure; an overlay generator configured to generate an overlay image on the images of the interventional procedure, wherein the overlay image includes a three-dimensional anatomical image; and an interventional device tracking system configured to dynamically track a 3D position, orientation and shape of an interventional device during the procedure; wherein the overlay image is dynamically updated in response to deformations caused to an organ of interest by the interventional device during the procedure, said deformations being determined based on sensing of pressure, strain, shear or proximity/contact along said interventional device.
A power supply unit for an aerosol inhaler comprising: a power supply configured to supply power to a load for atomizing an aerosol source ; a first DC / DC converter connected to the power supply ; a second DC / DC converter connected to the power supply and different from the first DC / DC converter ; and a circuit board on which the first DC / DC converter and the second DC / DC converter are mounted, characterized in that as viewed from a first direction perpendicular to a surface of the circuit board on which the first DC / DC converter and the second DC / DC converter are mounted, the circuit board substantially has an L-shape as a whole defined by a connection portion ; by a first portion extending from a front end surface of the connection portion in a forward direction perpendicular to the first direction; and by a second portion extending from an upper end surface of the connection portion in an upward direction perpendicular to the first direction and the forward direction, the first DC / DC converter is mounted on the first portion , and the second DC / DC converter is mounted on the second portion . a power supply configured to supply power to a load for atomizing an aerosol source ; a first DC / DC converter connected to the power supply ; a second DC / DC converter connected to the power supply and different from the first DC / DC converter ; and a circuit board on which the first DC / DC converter and the second DC / DC converter are mounted, characterized in that as viewed from a first direction perpendicular to a surface of the circuit board on which the first DC / DC converter and the second DC / DC converter are mounted, the circuit board substantially has an L-shape as a whole defined by a connection portion ; by a first portion extending from a front end surface of the connection portion in a forward direction perpendicular to the first direction; and by a second portion extending from an upper end surface of the connection portion in an upward direction perpendicular to the first direction and the forward direction, the first DC / DC converter is mounted on the first portion , and the second DC / DC converter is mounted on the second portion .
A method for fabricating a composite structure , the method comprising laying up, with a delivery head of a tape placement machine , a continuous segment of a composite tape on a composite panel to form a flange portion of an initial ply of a composite stiffener ; locating a backing plate , coupled to the delivery head , relative to the delivery head and composite panel ; and further laying up, with the delivery head , the continuous segment of the composite tape on the backing plate to form a web portion of the initial ply of the composite stiffener .
A computer-implemented image processing method using a plurality of specimen images (Is1, Is2, Is3) obtained by successively applying a plurality of types of staining to a specimen (S) to be evaluated and imaging the specimen (S) after staining for at least two types of staining, the image processing method comprising: extracting (S201) an inner region (R1 to R4; R5 to R11) corresponding to inward of a cell membrane (M) of a cell (C1, C2, C2, C4; C5 to C11) in the specimen from a specimen image (Is1, Is2, Is3) captured after a staining in which the cell membrane (M) is selectively stained out of the plurality of types of staining; specifying (S107) a cell region corresponding to an individual cell included in the specimen (S) by expanding the inner region (R1 to R4; R5 to R11) outwardly; and performing (S108) image cytometry for the cell region (R1 to R4; R5 to R11) based on the specimen images (Is1, Is2, Is3). extracting (S201) an inner region (R1 to R4; R5 to R11) corresponding to inward of a cell membrane (M) of a cell (C1, C2, C2, C4; C5 to C11) in the specimen from a specimen image (Is1, Is2, Is3) captured after a staining in which the cell membrane (M) is selectively stained out of the plurality of types of staining; specifying (S107) a cell region corresponding to an individual cell included in the specimen (S) by expanding the inner region (R1 to R4; R5 to R11) outwardly; and performing (S108) image cytometry for the cell region (R1 to R4; R5 to R11) based on the specimen images (Is1, Is2, Is3).