mhurhangee/patent-ind-claim-en huggingface dataset:
A session management method, comprising: receiving , by a session management network element, a first message from a terminal, wherein the first message is used to request to establish a session; obtaining, by the session management network element, a data network identifier from the first message, wherein the data network identifier is used to identify a data network to which the terminal requests to establish the session; determining , by the session management network element for the terminal, the first user plane network element supported by the data network identifier; allocating , by the session management network element to the terminal based on the data network identifier and correspondences between the first user plane network element and IP addresses supported by the first user plane network element, a first IP address supported by the first user plane network element; and sending , by the session management network element, the first IP address to the terminal, and notifying the first user plane network element to establish the session. receiving , by a session management network element, a first message from a terminal, wherein the first message is used to request to establish a session; obtaining, by the session management network element, a data network identifier from the first message, wherein the data network identifier is used to identify a data network to which the terminal requests to establish the session; determining , by the session management network element for the terminal, the first user plane network element supported by the data network identifier; allocating , by the session management network element to the terminal based on the data network identifier and correspondences between the first user plane network element and IP addresses supported by the first user plane network element, a first IP address supported by the first user plane network element; and sending , by the session management network element, the first IP address to the terminal, and notifying the first user plane network element to establish the session.
Device for pulsatility detection comprising: - an input interface for obtaining image data of a scene, said image data comprising a time sequence of image frames, - an extraction unit for extracting a time-varying signal indicative of a periodic physiological phenomenon from a region of interest of said image data, - a transformation unit for transforming said time-varying signal into a spectral signal, the device being characterised by further comprising: - a partitioning unit for partitioning the spectral signal into at least an in-band sub-signal covering a first frequency range of said spectral signal and an out-band sub-signal covering a second frequency range of said spectral signal, wherein said first frequency range comprises at least a frequency range of the periodic physiological phenomenon, - an analysis unit for separately deriving an in-band measure from the in-band sub-signal and an out-band measure from the out-band sub-signal, the in-band measure and the out-band measure representing a descriptor, and - a classifier for classifying said region of interest as a pulsatile region of a living being or as a non-pulsatile region based on the descriptor. - an input interface for obtaining image data of a scene, said image data comprising a time sequence of image frames, - an extraction unit for extracting a time-varying signal indicative of a periodic physiological phenomenon from a region of interest of said image data, - a transformation unit for transforming said time-varying signal into a spectral signal, - a partitioning unit for partitioning the spectral signal into at least an in-band sub-signal covering a first frequency range of said spectral signal and an out-band sub-signal covering a second frequency range of said spectral signal, wherein said first frequency range comprises at least a frequency range of the periodic physiological phenomenon, - an analysis unit for separately deriving an in-band measure from the in-band sub-signal and an out-band measure from the out-band sub-signal, the in-band measure and the out-band measure representing a descriptor, and - a classifier for classifying said region of interest as a pulsatile region of a living being or as a non-pulsatile region based on the descriptor.
A compound having a formula (F-I) below: wherein: R 1 and R 2 are independently each a linear alkyl group selected from n -butyl, n -hexyl, n -octyl, n -decyl, and n -dodecyl; and R3 groups are selected from: methyl, ethyl, n -propyl, n -butyl, n -pentyl, n -hexyl, n- heptyl, n -octyl, n -nonyl, n -decyl, n -undecyl, n -dodecyl, n -tridecyl, n -tetradecyl, n -pentadecyl, n -hexadecyl, n -heptadecyl, n -octadecyl, n -nonadecyl, n -icosyl, phenyl, benzyl, 2-phenylethyl, 3-phenylpropyl, 4-phenylbutyl, 3-(3-methylphenyl)propyl, 3-(p-tolyl)propyl, 2-methylphenyl, 3-methylphenyl, 4-methylphenyl, 2-methyl-1-naphthyl, 6-phenylhexyl, 5-pentylphenyl, 4-butylphenyl, 4-tert-butylphenyl, 7-phenylheptanyl, 4-octylphenyl, 2-methylcyclohexyl, 3-methylcyclohexyl, 4-methylcyclohexyl, 4-tert-butylcyclohexyl, 4-phenylcyclohexyl, cyclohexylpentyl, nitrophenylmethyl, xylylmethyl, xylylpropyl, methoxyphenylethyl, methoxyphenylpropyl, methoxyphenylbutyl, nitrophenylpropyl, nitrophenylbutyl, and xylylbutyl. R 1 and R 2 are independently each a linear alkyl group selected from n -butyl, n -hexyl, n -octyl, n -decyl, and n -dodecyl; and R3 groups are selected from: methyl, ethyl, n -propyl, n -butyl, n -pentyl, n -hexyl, n- heptyl, n -octyl, n -nonyl, n -decyl, n -undecyl, n -dodecyl, n -tridecyl, n -tetradecyl, n -pentadecyl, n -hexadecyl, n -heptadecyl, n -octadecyl, n -nonadecyl, n -icosyl, phenyl, benzyl, 2-phenylethyl, 3-phenylpropyl, 4-phenylbutyl, 3-(3-methylphenyl)propyl, 3-(p-tolyl)propyl, 2-methylphenyl, 3-methylphenyl, 4-methylphenyl, 2-methyl-1-naphthyl, 6-phenylhexyl, 5-pentylphenyl, 4-butylphenyl, 4-tert-butylphenyl, 7-phenylheptanyl, 4-octylphenyl, 2-methylcyclohexyl, 3-methylcyclohexyl, 4-methylcyclohexyl, 4-tert-butylcyclohexyl, 4-phenylcyclohexyl, cyclohexylpentyl, nitrophenylmethyl, xylylmethyl, xylylpropyl, methoxyphenylethyl, methoxyphenylpropyl, methoxyphenylbutyl, nitrophenylpropyl, nitrophenylbutyl, and xylylbutyl.
A cartridge for adsorbent dialysis, comprising a container having an interior space with variable volume, wherein the container comprises at least a portion made of a flexible material, an adsorbent powder material filling said interior space so that all the interior space is occupied by the adsorbent powder material, wherein said adsorbent powder material is non-dissolvable and is filled in a dry state; an inlet tube and an outlet tube arranged for conducting fluid into and out of the interior space of the container for passage of fluid through the non-dissolvable adsorbent powder material; and wherein said interior space of the container is suitable to comprise a sub-pressure in relation to the ambient pressure during adsorbent dialysis use. a container having an interior space with variable volume, wherein the container comprises at least a portion made of a flexible material, an adsorbent powder material filling said interior space so that all the interior space is occupied by the adsorbent powder material, wherein said adsorbent powder material is non-dissolvable and is filled in a dry state; an inlet tube and an outlet tube arranged for conducting fluid into and out of the interior space of the container for passage of fluid through the non-dissolvable adsorbent powder material; and wherein said interior space of the container is suitable to comprise a sub-pressure in relation to the ambient pressure during adsorbent dialysis use.
A method of making an electrically conductive connector comprising a first layer of a first material that has a first coefficient of thermal expansion and a second layer of a second material that has a second coefficient of thermal expansion that is different than the first coefficient of thermal expansion, the method comprising: bonding the first and second layers together; characterized by situating the second layer comprising the second material within a channel defined in the first layer ; and applying a layer of solder to the first and second layers such that the layer of solder covers the second layer and portions of the first layer that are exposed. bonding the first and second layers together; characterized by situating the second layer comprising the second material within a channel defined in the first layer ; and applying a layer of solder to the first and second layers such that the layer of solder covers the second layer and portions of the first layer that are exposed.
A reinforced separator for alkaline water hydrolysis comprising a porous support , a first porous polymer layer contiguous with one side of the support and a second porous polymer layer contiguous with the other side of the support, characterized in that : - the maximum pore diameter at the outer surface of the first porous polymer layer (PD max ) and of the second porous polymer layer (PD max ) are different from each other, - a ratio PDmax /PDmax is between1.25 and 10, - PDmax is between 0.05 μm and 0.3 μm and PDmax is between 0.2 μm and 6.5 μm, wherein the maximum pore diameter is measured according to the ASTM F316 test method. - the maximum pore diameter at the outer surface of the first porous polymer layer (PD max ) and of the second porous polymer layer (PD max ) are different from each other, - a ratio PDmax /PDmax is between1.25 and 10, - PDmax is between 0.05 μm and 0.3 μm and PDmax is between 0.2 μm and 6.5 μm,
Method for producing a motor vehicle component having at least two regions with differing strengths and a protective layer, characterised by the following method steps: - provision of pre-coated plates , in particular plate blanks, made of a hardenable steel alloy, - homogeneous heating to a heating temperature greater than or equal to AC3 temperature, - maintaining the heating temperature so that the pre-coating alloys with the plate , - homogeneous intermediate cooling of the alloyed plate to an intermediate cooling temperature between 450 and 700°C, - partial heating of the plate in regions of the first type from the intermediate cooling temperature to at least AC3 temperature and maintaining regions of the second type substantially at the intermediate cooling temperature, - hot-forming and press-hardening of the partially tempered plate to form the motor vehicle component , a tensile strength greater than 1400 MPa being set in regions of the first type and a tensile strength less than 1050 MPa being set in regions of the second type and in a transition region lying therebetween. - provision of pre-coated plates , in particular plate blanks, made of a hardenable steel alloy, - homogeneous heating to a heating temperature greater than or equal to AC3 temperature, - maintaining the heating temperature so that the pre-coating alloys with the plate , - homogeneous intermediate cooling of the alloyed plate to an intermediate cooling temperature between 450 and 700°C, - partial heating of the plate in regions of the first type from the intermediate cooling temperature to at least AC3 temperature and maintaining regions of the second type substantially at the intermediate cooling temperature, - hot-forming and press-hardening of the partially tempered plate to form the motor vehicle component , a tensile strength greater than 1400 MPa being set in regions of the first type and a tensile strength less than 1050 MPa being set in regions of the second type and in a transition region lying therebetween.
A building-top skyport for landing, loading and unloading, servicing, and parking short field takeoff and landing (STOL) aircraft , comprising: a rotatable flight deck having at least one runway configured for aircraft to takeoff and land; a rotatable lower deck immediately below said flight deck, said lower deck including an aircraft taxiway surrounding an enclosed central terminal with an elevator bank ; and first and second aircraft ramps connecting said flight deck and said lower deck on which to taxi aircraft between said flight deck and said lower deck . a rotatable flight deck having at least one runway configured for aircraft to takeoff and land; a rotatable lower deck immediately below said flight deck, said lower deck including an aircraft taxiway surrounding an enclosed central terminal with an elevator bank ; and first and second aircraft ramps connecting said flight deck and said lower deck on which to taxi aircraft between said flight deck and said lower deck .
A stiffness controlled abradeable seal system for a gas turbine engine, comprising: a static seal surface in contact with a rotating seal surface at an abradeable seal interface ; and a cantilevered arm that supports one of said rotating seal surface and said static seal surface , a stiffness of said cantilevered arm determined to achieve a desired operational temperature at said abradeable seal interface ; said abradeable seal interface is located between a rotor blade tip and a blade outer air seal, characterized in that the abradeable seal interface includes a composite of at least one metal combined with a MAX phase material, wherein said at least one metal is selected from silver gold, copper, platinum and combinations or alloys thereof, and said seal interface includes a 25% volume fraction of MAX phase material. a static seal surface in contact with a rotating seal surface at an abradeable seal interface ; and a cantilevered arm that supports one of said rotating seal surface and said static seal surface , a stiffness of said cantilevered arm determined to achieve a desired operational temperature at said abradeable seal interface ; said abradeable seal interface is located between a rotor blade tip and a blade outer air seal, characterized in that the abradeable seal interface includes a composite of at least one metal combined with a MAX phase material, wherein said at least one metal is selected from silver gold, copper, platinum and combinations or alloys thereof, and said seal interface includes a 25% volume fraction of MAX phase material.
A control method of a laundry treating apparatus comprising a drum rotatably mounted in the cabinet and configured to accommodate laundry; a drive unit configured to rotate the drum ; a hot air supply unit configured to supply high-temperature air to the drum , in communication with the drum ; a collection portion provided to be communicated with the hot air supply unit to collect water condensed; and a drainage pump configured to discharge the water collected in the collection portion outside the cabinet , the control method comprising an abnormal condition determining step (A1, B1, C2), characterized in that the abnormal condition determining step (A1, B1, C2) is performed for determining whether the condensate in the collection portion is frozen, and the control method further comprises a thawing step (A3, B2, C3) of thawing the condensate when it is determined that the condensate is frozen.
A synchrotron accelerator control device for controlling a synchrotron accelerator , the synchrotron accelerator comprising: a high-frequency acceleration cavity ; a blocker ; and a current value detector , the synchrotron accelerator control device comprising: a high-frequency power controller configured to control the supply of high frequency power to the high-frequency acceleration cavity for accelerating a charged particle beam into the synchrotron accelerator ; and a timing controller , characterized in that the timing controller is configured to control an operation timing of the blocker to block the charged particle beam emitted from the synchrotron accelerator on the basis of a current value of the charged particle beam circulating in the synchrotron accelerator detected by the current value detector . a high-frequency acceleration cavity ; a blocker ; and a current value detector , the synchrotron accelerator control device comprising: a high-frequency power controller configured to control the supply of high frequency power to the high-frequency acceleration cavity for accelerating a charged particle beam into the synchrotron accelerator ; and a timing controller , a high-frequency power controller configured to control the supply of high frequency power to the high-frequency acceleration cavity for accelerating a charged particle beam into the synchrotron accelerator ; and a timing controller , characterized in that the timing controller is configured to control an operation timing of the blocker to block the charged particle beam emitted from the synchrotron accelerator on the basis of a current value of the charged particle beam circulating in the synchrotron accelerator detected by the current value detector .
A method for visualizing products in a single-page application, comprising: receiving, by an application system from a client system during rendering of a webpage received by the client system from a host system , a request for a script associated with the host system, the script executable by the client system to perform operations comprising: modifying the webpage to include a visualization application in response to a selection of a visualization control in the webpage by a user of the client system; receiving, by the application system from the visualization application, a request to display an image of a product in a first image; identifying a location in the first image; and providing instructions to the visualization application for displaying the image of the product at the location. receiving, by an application system from a client system during rendering of a webpage received by the client system from a host system , a request for a script associated with the host system, the script executable by the client system to perform operations comprising: modifying the webpage to include a visualization application in response to a selection of a visualization control in the webpage by a user of the client system; receiving, by the application system from the visualization application, a request to display an image of a product in a first image; identifying a location in the first image; and providing instructions to the visualization application for displaying the image of the product at the location.
A refrigerator having a cooling/heating chamber capable of cooling and heating foods, the cooling/heating chamber being divided into a heating zone (DZ) that is a space where foods to be heated are placed, and a non-heating zone (NDZ) that is a space continuous with the heating zone where foods not to be heated are placed, the refrigerator comprising: a heating module incorporated in the main body of the refrigerator , the heating module having a rectangular parallelepiped shape and being a double-walled structure including an inner case and a shield case containing the inner case , the inner case defining the cooling/heating chamber , the heating module including a heating unit having: an oscillation electrode arranged on a ceiling part of the heating zone (DZ), a counter electrode arranged on a bottom part of the heating zone (DZ) so as to face the oscillation electrode in a top-bottom direction, and an oscillating unit that applies an AC voltage to between the oscillation electrode and the counter electrode during execution of a zone heating operation. a heating module incorporated in the main body of the refrigerator , the heating module having a rectangular parallelepiped shape and being a double-walled structure including an inner case and a shield case containing the inner case , the inner case defining the cooling/heating chamber , the heating module including a heating unit having: an oscillation electrode arranged on a ceiling part of the heating zone (DZ), a counter electrode arranged on a bottom part of the heating zone (DZ) so as to face the oscillation electrode in a top-bottom direction, and an oscillating unit that applies an AC voltage to between the oscillation electrode and the counter electrode during execution of a zone heating operation. an oscillation electrode arranged on a ceiling part of the heating zone (DZ), a counter electrode arranged on a bottom part of the heating zone (DZ) so as to face the oscillation electrode in a top-bottom direction, and an oscillating unit that applies an AC voltage to between the oscillation electrode and the counter electrode during execution of a zone heating operation.
A method of manufacturing a gasket comprising: a step of applying a liquid molding material to an upper surface of a plate body by a dispenser and forming an application layer which extends in an endless manner with a predetermined pattern; and a step of lapping a molding jig over the plate body , correcting a cross sectional shape of the application layer to a cross sectional shape corresponding to a molding groove and curing the application layer , the molding jig having in a lower surface thereof the molding groove which extends in an endless manner according to a predetermined pattern corresponding to the application layer , wherein the molding jig has a burr groove which can form burrs by the liquid molding material extruded out of the inner side of the molding groove , characterized in that the burr groove is structured such as to form the burrs at a position which is away from a bonded portion between the plate body and the liquid molding material. a step of applying a liquid molding material to an upper surface of a plate body by a dispenser and forming an application layer which extends in an endless manner with a predetermined pattern; and a step of lapping a molding jig over the plate body , correcting a cross sectional shape of the application layer to a cross sectional shape corresponding to a molding groove and curing the application layer , the molding jig having in a lower surface thereof the molding groove which extends in an endless manner according to a predetermined pattern corresponding to the application layer , wherein the molding jig has a burr groove which can form burrs by the liquid molding material extruded out of the inner side of the molding groove , characterized in that the burr groove is structured such as to form the burrs at a position which is away from a bonded portion between the plate body and the liquid molding material.