mhurhangee/patent-ind-claim-en huggingface dataset:
A method by which a flowable starting product (AP) is clarified of solids F by means of a self-emptying centrifuge - which has a rotatable drum having an intake , having at least one liquid outlet and having discontinuously openable and closable outlet openings for solid matter F and having a control unit - in a continuous operation in a centrifugal field in the rotating drum , wherein continuous discharge of at least a clarified liquid phase - a clear phase (KP) - takes place with the aid of a controllable piston slide valve and wherein discontinuous discharge of the solids (F) - referred to as emptying of solids - from a solids collection chamber of the drum takes place repeatedly via the discontinuously openable and closable outlet openings for solid matter F, characterized by at least the following steps to be carried out during the respective solids emptying procedure: 100: initiating the respective emptying of solids from the drum of the centrifuge; 200: reducing the speed of the drum of the centrifuge; 300: opening the outlet openings and emptying the solids (F) from the solids collection chamber of the drum whilst the speed of the drum is reduced, wherein the emptying procedure in step 300 takes place with the aid of the controllable piston slide valve , by means of which the outlet openings are opened at the start of the solids emptying procedure; 400: closing the outlet openings with the aid of the controllable piston slide valve at the end of the respective solids emptying procedure and terminating the emptying of the solids (F) from the drum . 100: initiating the respective emptying of solids from the drum of the centrifuge; 200: reducing the speed of the drum of the centrifuge; 300: opening the outlet openings and emptying the solids (F) from the solids collection chamber of the drum whilst the speed of the drum is reduced, wherein the emptying procedure in step 300 takes place with the aid of the controllable piston slide valve , by means of which the outlet openings are opened at the start of the solids emptying procedure; 400: closing the outlet openings with the aid of the controllable piston slide valve at the end of the respective solids emptying procedure and terminating the emptying of the solids (F) from the drum .
A vacuum pump comprising a rolling element rotor bearing , a bearing cage retainer for said rolling element rotor bearing; the bearing comprising an outer race , an inner race , and a plurality of separated rolling elements retained within a rotatable bearing cage ; the vacuum pump being configured to limit longitudinal axial displacement of the outer race of the bearing; and the bearing cage retainer being configured to have an operational arrangement in which, at the maximum longitudinal axial displacement limit of the outer race in the direction of the retainer, the bearing cage retainer is disengaged from the bearing cage, and a failure configuration characterised by the dislocation of the bearing cage by a longitudinal axial displacement of the bearing cage relative to the outer race in the direction of the retainer and in which the bearing cage retainer engages said bearing cage and the bearing cage maintains the separation of the rolling elements within the bearing and wherein in the failure configuration the bearing cage retainer supports the bearing cage such that each of the rolling elements are in rolling and/or sliding engagement with both the outer race and inner race of the bearing.
A method of a user receiving permission to access media content comprising: receiving a unitary media storage structure with a plurality of protected media portions ; receiving from a license authority a key for each protected media portion that the user has permission to access; storing the received keys in the unitary media storage structure ; and using the respective key to access each protected media portion that the user has permission to access. receiving a unitary media storage structure with a plurality of protected media portions ; receiving from a license authority a key for each protected media portion that the user has permission to access; storing the received keys in the unitary media storage structure ; and using the respective key to access each protected media portion that the user has permission to access.
A method comprising: sending, by a source access and mobility management function, AMF (155-2), to a target AMF (155-1), a first message indicating a handover of a wireless device , the first message comprising one or more first parameters of a source session management function, SMF (160-2); receiving, by the source AMF from the target AMF, a first release request message requesting a release of at least one PDU session; sending, by the source AMF to the target AMF, a first response message indicating completion of the release of the at least one PDU session; sending, by the source AMF to the source SMF, a second release request message requesting the release of the at least one PDU session; and receiving, by the source AMF from the source SMF, a second response message indicating completion of the release of the at least one PDU session. sending, by a source access and mobility management function, AMF (155-2), to a target AMF (155-1), a first message indicating a handover of a wireless device , the first message comprising one or more first parameters of a source session management function, SMF (160-2); receiving, by the source AMF from the target AMF, a first release request message requesting a release of at least one PDU session; sending, by the source AMF to the target AMF, a first response message indicating completion of the release of the at least one PDU session; sending, by the source AMF to the source SMF, a second release request message requesting the release of the at least one PDU session; and receiving, by the source AMF from the source SMF, a second response message indicating completion of the release of the at least one PDU session.
A method for producing a building material , comprising: a first step of applying an undercoat paint onto an inorganic base material , curing the undercoat paint , and polishing the undercoat paint ; and a second step of applying an enamel paint onto the undercoat paint and curing the enamel paint with a dryer at 50°C to 120°C, wherein the undercoat paint contains an undercoat-forming material and a filler, the enamel paint contains an enamel-forming material and a pigment, the enamel-forming material is a solvent-based resin, a content of the filler in the undercoat paint is 40% to 70% by mass in terms of solid content, and a content of the pigment in the enamel paint is 1% to 50% by mass in terms of solid content, wherein the undercoat-forming material is a solvent-based urethane resin . a first step of applying an undercoat paint onto an inorganic base material , curing the undercoat paint , and polishing the undercoat paint ; and a second step of applying an enamel paint onto the undercoat paint and curing the enamel paint with a dryer at 50°C to 120°C, wherein the undercoat paint contains an undercoat-forming material and a filler, the enamel paint contains an enamel-forming material and a pigment, the enamel-forming material is a solvent-based resin, a content of the filler in the undercoat paint is 40% to 70% by mass in terms of solid content, and a content of the pigment in the enamel paint is 1% to 50% by mass in terms of solid content,
A combustible smoking article comprising: a tobacco substrate; and a filter for selective reduction of acetaldehyde in a mainstream smoke delivered to the user during use of the smoking article, wherein the filter comprises activated carbon fibres functionalized with a metal oxide, wherein the metal oxide is a Group II metal oxide, and wherein the metal oxide functionalized activated carbon fibres have a decreased BET surface area relative to a BET surface area of an activated carbon fibre starting material; wherein the Group II metal oxide is selected from the group consisting of MgO and CaO, wherein the metal oxide is present on the activated carbon fibres in a range from about 2% by weight to about 10% by weight, and wherein the functionalized activated carbon fibres have an adsorption capacity for acetaldehyde of about 5 w/w% or greater. a tobacco substrate; and a filter for selective reduction of acetaldehyde in a mainstream smoke delivered to the user during use of the smoking article, wherein the filter comprises activated carbon fibres functionalized with a metal oxide, wherein the metal oxide is a Group II metal oxide, and wherein the metal oxide functionalized activated carbon fibres have a decreased BET surface area relative to a BET surface area of an activated carbon fibre starting material; wherein the Group II metal oxide is selected from the group consisting of MgO and CaO, wherein the metal oxide is present on the activated carbon fibres in a range from about 2% by weight to about 10% by weight, and wherein the functionalized activated carbon fibres have an adsorption capacity for acetaldehyde of about 5 w/w% or greater.
A method for handling radioactive solutions after decontamination of the surfaces of protective equipment, the method comprising the combined evaporation of alkaline and acidic solutions containing sodium hydroxide, potassium permanganate, oxalic acid and nitric acid to a solid residue, with subsequent calcination and mixing of the calcinate with the components of the fusion mixture containing oxides of titanium, calcium, iron (III) and aluminum in certain proportions, and the combined melting of all components to produce a ceramic matrix, wherein zirconium and manganese (IV) oxides are further introduced into the mixture of the calcinate and oxides of titanium, calcium, iron (III) and aluminum in the following component proportions, wt%: Calcinate of high-level waste 10.0-20.0 TiO 2 53.0-57. CaO 9.0-11.0 Fe 2 O 3 4.5-5.5 Al 2 O 3 4.5-5.5 ZrO 2 4.5-5.5 and the total content of MnO 2 in the mixture does not exceed 10 wt%.
An address translation cache, ATC, configured to store translation entries indicating mapping information between a virtual address (VA) and a physical address (PA) of a memory device, the ATC comprising: a plurality of flexible page group caches (120; FPGC1 ~ FPGCn), each flexible page group cache configured to store (S100) translation entries corresponding to a page size allocated to the flexible page group cache, each flexible page group cache being a set associative cache; a shared cache (130; SHC) configured to store (S200), regardless of page sizes, translation entries that are not stored in the plurality of flexible page group caches (120; FPGC1 ~ FPGCn), the shared cache (130; SHC) being a fully associative cache; and a cache manager (110; CMNG) configured to allocate (S300) a page size to each flexible page group cache, manage cache page information (CPI) on the page sizes allocated to the plurality of flexible page group caches (120; FPGC1 ~ FPGCn), and control (S400) the plurality of flexible page group caches (120; FPGC1 ~ FPGCn) and the shared cache (130; SHC) based on the cache page information (CPI), and wherein the cache manager (110; CMNG) is further configured such that when the cache manager (110; CMNG) receives (S11) an input translation entry (ITE) corresponding to a new page size that is different from the page sizes allocated to the plurality of flexible page group caches (120; FPGC1 ~ FPGCn) and there does not exist an empty flexible page group cache to which the page size is not allocated, the cache manager (110; CMNG) stores (S19) the input translation entry (ITE) in the shared cache (130; SHC). a plurality of flexible page group caches (120; FPGC1 ~ FPGCn), each flexible page group cache configured to store (S100) translation entries corresponding to a page size allocated to the flexible page group cache, each flexible page group cache being a set associative cache; a shared cache (130; SHC) configured to store (S200), regardless of page sizes, translation entries that are not stored in the plurality of flexible page group caches (120; FPGC1 ~ FPGCn), the shared cache (130; SHC) being a fully associative cache; and a cache manager (110; CMNG) configured to allocate (S300) a page size to each flexible page group cache, manage cache page information (CPI) on the page sizes allocated to the plurality of flexible page group caches (120; FPGC1 ~ FPGCn), and control (S400) the plurality of flexible page group caches (120; FPGC1 ~ FPGCn) and the shared cache (130; SHC) based on the cache page information (CPI), and wherein the cache manager (110; CMNG) is further configured such that when the cache manager (110; CMNG) receives (S11) an input translation entry (ITE) corresponding to a new page size that is different from the page sizes allocated to the plurality of flexible page group caches (120; FPGC1 ~ FPGCn) and there does not exist an empty flexible page group cache to which the page size is not allocated, the cache manager (110; CMNG) stores (S19) the input translation entry (ITE) in the shared cache (130; SHC).
Dosing device for the introduction of an operating or auxiliary substance into a flow pipe of an internal combustion engine, in particular for introducing a reducing agent into an exhaust pipe , comprising an injection valve and a receiving device which comprises a cooling body element , wherein the injection valve and the receiving device are combined to form a structural unit by way of at least one cohesive connection , wherein the injection valve is, at a lower end in the region of a spray hole disk , connected cohesively and sealingly to the cooling body element by way of a weld seam , that the cooling body element is a multi-part construction composed of thin-walled components which are cohesively connected to one another in such a way that a ring-shaped chamber is formed which is connectable to a cooling medium inlet and to a cooling medium outlet in order for the ring-shaped chamber to be charged with cooling medium, wherein a flow path defined by dividing elements is imparted to the cooling medium, and that, for the compensation of different thermal length expansions of injection valve and receiving device , an expansion compensation means is provided, characterized in that the receiving device comprises a cover element which is connected by way of a weld seam to the cooling body element and the injection valve is, at an upper end, connected cohesively and sealingly to the cover element of the receiving device by way of a weld seam , wherein the expansion compensation means is configured in the form of a spring element or a corrugated bellows.
An ultrasound diagnostic apparatus comprising: a probe configured to acquire three-dimensional ultrasound data about an object; a display unit configured to display a plane image of at least one of a plurality of planes included in the object, based on the 3D ultrasound data; a user input unit configured to receive a user input selecting a first point and a second point in the plane image which generates a first straight line connecting the first point to the second point; a processor configured to acquire a first flat surface which is parallel to the first straight line and is separated from the first straight line by a first distance, acquire a second flat surface which is parallel to the first straight line and is separated from the first straight line by a second distance, set , as a volume of interest (VOI), a volume between the first flat surface, and the second flat surface, and an image generation unit configured to generate at least one selected from a 3D image and a two-dimensional plane image of the set VOI, based on the 3D ultrasound data, wherein the processor is configured to set the first flat surface in order for the first flat surface to be vertical to the plane image and set the second flat surface in order for the second flat surface to be vertical to the plane image, and wherein the display unit is configured to display at least one selected from the 3D image and the 2D plane image of the VOI. a probe configured to acquire three-dimensional ultrasound data about an object; a display unit configured to display a plane image of at least one of a plurality of planes included in the object, based on the 3D ultrasound data; a user input unit configured to receive a user input selecting a first point and a second point in the plane image which generates a first straight line connecting the first point to the second point; a processor configured to acquire a first flat surface which is parallel to the first straight line and is separated from the first straight line by a first distance, acquire a second flat surface which is parallel to the first straight line and is separated from the first straight line by a second distance, set , as a volume of interest (VOI), a volume between the first flat surface, and the second flat surface, and an image generation unit configured to generate at least one selected from a 3D image and a two-dimensional plane image of the set VOI, based on the 3D ultrasound data, wherein the processor is configured to set the first flat surface in order for the first flat surface to be vertical to the plane image and set the second flat surface in order for the second flat surface to be vertical to the plane image, and wherein the display unit is configured to display at least one selected from the 3D image and the 2D plane image of the VOI.
Wall-mounted cabinet body assembled in endless construction from - a plurality of rectangular body side walls made of metal and each having, at the top of their rear side, an open-bottom hanging recess and, on both sides, holes , - at least one assembly rail , in particular profile rail, made of metal for horizontal mounting on a wall and having a first rail portion for butting against, and mounting on, the wall and a free rail portion for suspending the hanging recess of the body side walls , the free rail portion running parallel to, and at a distance from, the first rail portion , and - a plurality of crossmembers made of metal for fastening in each case between two body side walls , wherein the assembly rail can be mounted on the wall horizontally with the free rail portion upwards, wherein the vertically oriented body side walls , on the one hand, are suspended at their rear side, by way of their open-bottom hanging recess , in the free rail portion of the assembly rail and, on the other hand, rest on the floor in each case by way of at least one adjustable foot , which is fastened exclusively on the underside of a front crossmember or on the underside of the front lower corners of the body side wall , and wherein in each case at least one crossmember is fastened at the top and bottom between two body side walls . - a plurality of rectangular body side walls made of metal and each having, at the top of their rear side, an open-bottom hanging recess and, on both sides, holes , - at least one assembly rail , in particular profile rail, made of metal for horizontal mounting on a wall and having a first rail portion for butting against, and mounting on, the wall and a free rail portion for suspending the hanging recess of the body side walls , the free rail portion running parallel to, and at a distance from, the first rail portion , and - a plurality of crossmembers made of metal for fastening in each case between two body side walls ,
An aerosol delivery device comprising: at least one housing enclosing a reservoir configured to retain an aerosol precursor composition; a nozzle coupled to the housing to discharge aerosol precursor composition from the reservoir , the nozzle including a piezoelectric or piezomagnetic material surrounding a mesh ; and a control component including a microprocessor coupled to and configured to drive the piezoelectric or piezomagnetic material to vibrate and cause a discharge of components of the aerosol precursor composition through the mesh and thereby produce an aerosol for inhalation by a user, the components of the aerosol precursor composition discharged through the mesh having a diameter of less than one micrometer, wherein aerosol precursor composition is delivered from the reservoir to the mesh for discharge of components thereof, and wherein the aerosol delivery device further comprises a micro filter proximate a reservoir side of the mesh to filter the aerosol precursor composition delivered from the reservoir to the mesh for discharge of components thereof. at least one housing enclosing a reservoir configured to retain an aerosol precursor composition; a nozzle coupled to the housing to discharge aerosol precursor composition from the reservoir , the nozzle including a piezoelectric or piezomagnetic material surrounding a mesh ; and a control component including a microprocessor coupled to and configured to drive the piezoelectric or piezomagnetic material to vibrate and cause a discharge of components of the aerosol precursor composition through the mesh and thereby produce an aerosol for inhalation by a user, the components of the aerosol precursor composition discharged through the mesh having a diameter of less than one micrometer, wherein aerosol precursor composition is delivered from the reservoir to the mesh for discharge of components thereof, and wherein the aerosol delivery device further comprises a micro filter proximate a reservoir side of the mesh to filter the aerosol precursor composition delivered from the reservoir to the mesh for discharge of components thereof.
Method for obtaining uplink calibration values in a terminal of a wireless communication system in order to enable a Base Station, BS, having a number of antennas to determine a respective hardware chain value for each antenna of the number of antennas, said method comprising: obtaining, by the terminal, a downlink channel estimate value for each antenna, and determining a downlink channel estimate value with the lowest signal power, wherein the numbers of antennas are divided into groups; obtaining, by the terminal, a normalization value for each group of antennas based on the downlink channel estimate value with the lowest signal power within each group; obtaining, by the terminal, an uplink calibration value for each antenna on the basis of the downlink channel estimate value for each antenna and the normalization value for each group; transmitting , by the terminal, the obtained uplink calibration value for each antenna to the BS; and signaling, by the terminal, the obtained normalization value for each group to the BS. obtaining, by the terminal, a downlink channel estimate value for each antenna, and determining a downlink channel estimate value with the lowest signal power, wherein the numbers of antennas are divided into groups; obtaining, by the terminal, a normalization value for each group of antennas based on the downlink channel estimate value with the lowest signal power within each group; obtaining, by the terminal, an uplink calibration value for each antenna on the basis of the downlink channel estimate value for each antenna and the normalization value for each group; transmitting , by the terminal, the obtained uplink calibration value for each antenna to the BS; and signaling, by the terminal, the obtained normalization value for each group to the BS.
A computer-readable medium whose contents cause a computing system to perform a method for evaluating a spreadsheet cell, comprising: reading a function call stored in the spreadsheet cell, the function call specifying an arbitrary geometric path (701, 702; 1000), and an operation to be performed on the specified path; performing the specified operation on the specified path; and attributing one or more values produced by performing the specified operation on the specified path as the evaluated value of the spreadsheet cell. reading a function call stored in the spreadsheet cell, the function call specifying an arbitrary geometric path (701, 702; 1000), and an operation to be performed on the specified path; performing the specified operation on the specified path; and attributing one or more values produced by performing the specified operation on the specified path as the evaluated value of the spreadsheet cell.