mhurhangee/ep-ind-claims huggingface dataset:
A system for scanning application program data utilizing a mobile communication device, comprising: an application program installed on a mobile communication device capable of communicating via a wireless network, the application program adapted for performing tasks utilizing the mobile communication device; and a scanning subsystem in communication with the application program for scanning application data relating to the tasks performed by the application program, the application data comprising a plurality of different data types; wherein the application program communicates information relating to and in addition to the application data to the scanning subsystem to facilitate the scanning by the scanning subsystem; and wherein the application program is selected from the group consisting of a mail application program, a browser application program, a phone book application program, a message application program, and a Java application, and the tasks are selected from the group consisting of managing electronic mail, browsing a network, managing a plurality telephone numbers, and communicating messages; and wherein the information includes variables that relate to different types of the application data, characterised in that timing of the scanning by the scanning subsystem varies as a function of the different data types identified in the application data. an application program installed on a mobile communication device capable of communicating via a wireless network, the application program adapted for performing tasks utilizing the mobile communication device; and a scanning subsystem in communication with the application program for scanning application data relating to the tasks performed by the application program, the application data comprising a plurality of different data types; wherein the application program communicates information relating to and in addition to the application data to the scanning subsystem to facilitate the scanning by the scanning subsystem; and wherein the application program is selected from the group consisting of a mail application program, a browser application program, a phone book application program, a message application program, and a Java application, and the tasks are selected from the group consisting of managing electronic mail, browsing a network, managing a plurality telephone numbers, and communicating messages; and wherein the information includes variables that relate to different types of the application data, characterised in that timing of the scanning by the scanning subsystem varies as a function of the different data types identified in the application data.
A method for selecting a router node in a LLN (Low power and Lossy Networks)-type telecommunication network including: - a plurality of nodes (2, 3) likely to act as data packet routers from or to at least one host node (6, 8) belonging to a group of multicast nodes likely to transmit and/or receive data packets through said network, - a root node including a first table for storing associations between at least one router node (2, 3) and at least one host node (6, 8), which method is characterised by the following steps: - upon receipt by a router node (2, 3) of a multicast data packet from a host node or a adherence request to a multicast group from a host node, said router node (2, 3) transmits to the root node a MER_Request (Multicast Edge Router Request) request of configuration as a multicast router node to serve said host node, and, - upon receipt of the MER_Request request, the root node determines, from said first association table a configuration of the router node (2, 3) and, - transmits to said router node (2, 3) a MER_Reply reply message including the determined configuration, said configuration of the router node (2, 3) consisting in assigning to it one of the following statuses: - MER (Multicast Edge Router): indicating that the router node (2, 3) is configured as a single multicast router for the host node (6, 8), - NON_MER: indicating that the router node (2, 3) is not configured as a multicast router for the host node (6, 8). - a plurality of nodes (2, 3) likely to act as data packet routers from or to at least one host node (6, 8) belonging to a group of multicast nodes likely to transmit and/or receive data packets through said network, - a root node including a first table for storing associations between at least one router node (2, 3) and at least one host node (6, 8), - upon receipt by a router node (2, 3) of a multicast data packet from a host node or a adherence request to a multicast group from a host node, said router node (2, 3) transmits to the root node a MER_Request (Multicast Edge Router Request) request of configuration as a multicast router node to serve said host node, and, - upon receipt of the MER_Request request, the root node determines, from said first association table a configuration of the router node (2, 3) and, - transmits to said router node (2, 3) a MER_Reply reply message including the determined configuration, said configuration of the router node (2, 3) consisting in assigning to it one of the following statuses: - MER (Multicast Edge Router): indicating that the router node (2, 3) is configured as a single multicast router for the host node (6, 8), - NON_MER: indicating that the router node (2, 3) is not configured as a multicast router for the host node (6, 8). - MER (Multicast Edge Router): indicating that the router node (2, 3) is configured as a single multicast router for the host node (6, 8), - NON_MER: indicating that the router node (2, 3) is not configured as a multicast router for the host node (6, 8).
A phosphor sheet, comprising: a phosphor layer including a phosphor particle-containing resin composition containing a coated phosphor particle obtained by coating a phosphor particle with a silicon dioxide film, a polymerizable compound, and a polymerization initiator; and a pair of transparent base materials which sandwiches the phosphor layer, wherein the coated phosphor particle includes at least a sulfide phosphor particle coated with a silicon dioxide film containing metal oxide powders, wherein the metal oxide powders are zinc oxide powders which have a particle diameter of 0.2 μm or less, and the amount of the metal oxide powders is 1 part by mass or more and less than 20 parts by mass with respect to 100 parts by mass of the sulfide phosphor particles, and wherein the thickness of the silicon dioxide film is in the range of 50 nm to 150 nm. a phosphor layer including a phosphor particle-containing resin composition containing a coated phosphor particle obtained by coating a phosphor particle with a silicon dioxide film, a polymerizable compound, and a polymerization initiator; and a pair of transparent base materials which sandwiches the phosphor layer, wherein the coated phosphor particle includes at least a sulfide phosphor particle coated with a silicon dioxide film containing metal oxide powders, wherein the metal oxide powders are zinc oxide powders which have a particle diameter of 0.2 μm or less, and the amount of the metal oxide powders is 1 part by mass or more and less than 20 parts by mass with respect to 100 parts by mass of the sulfide phosphor particles, and wherein the thickness of the silicon dioxide film is in the range of 50 nm to 150 nm.
A method of servicing a gas turbine engine comprising the steps of: providing a fastening element that secures a gearbox to an engine core, wherein: the gearbox includes an input gear, intermediate gears surrounding and meshing with the input gear and a ring gear, and the gearbox includes a bearing compartment surrounding the gears, wherein the bearing compartment includes a first seal assembly arranged radially inwardly of a low pressure compressor rotor; disconnecting the fastening element from the engine core; and removing the gearbox as a module from the engine core, the gears remaining in engagement with one another, the bearing compartment remaining assembled, and the first seal assembly axially clearing the low pressure compressor rotor during the removing step, wherein the module includes an inlet case connected to the gearbox, a second seal assembly is arranged between the low pressure compressor rotor and the module, the second seal assembly including first and second seal portions (132, 134) separating during the removing step, and the second seal assembly is arranged radially inboard from the low pressure compressor rotor, which is mounted on a hub, such that the module can be axially removed. providing a fastening element that secures a gearbox to an engine core, wherein: the gearbox includes an input gear, intermediate gears surrounding and meshing with the input gear and a ring gear, and the gearbox includes a bearing compartment surrounding the gears, wherein the bearing compartment includes a first seal assembly arranged radially inwardly of a low pressure compressor rotor; the gearbox includes an input gear, intermediate gears surrounding and meshing with the input gear and a ring gear, and the gearbox includes a bearing compartment surrounding the gears, wherein the bearing compartment includes a first seal assembly arranged radially inwardly of a low pressure compressor rotor; disconnecting the fastening element from the engine core; and removing the gearbox as a module from the engine core, the gears remaining in engagement with one another, the bearing compartment remaining assembled, and the first seal assembly axially clearing the low pressure compressor rotor during the removing step, wherein the module includes an inlet case connected to the gearbox, a second seal assembly is arranged between the low pressure compressor rotor and the module, the second seal assembly including first and second seal portions (132, 134) separating during the removing step, and the second seal assembly is arranged radially inboard from the low pressure compressor rotor, which is mounted on a hub, such that the module can be axially removed.
A method for the manufacture of a 2-hydrocarbyl-3,3-bis(hydroxyaryl)phthalimidine composition, the method comprising reacting a phthalimide of formula with a phenol of formula in the presence of a catalyst and optionally a solvent at an elevated temperature to form the 2-hydrocarbyl-3,3-bis(hydroxyaryl)phthalimidine composition, wherein the 2-hydrocarbyl-3,3-bis(hydroxyaryl)phthalimidine composition comprises a 2-hydrocarbyl-3,3-bis(hydroxyaryl)phthalimidine of formula wherein the hydrocarbyl is C 1-6 alkyl, C 1-6 alkoxy, or phenyl optionally substituted with 1 to 5 C 1-6 alkyls; and in formulas, and, R 1 is C 1-6 alkyl, C 1-6 alkoxy, or phenyl optionally substituted with 1 to 5 C 1-6 alkyls, each occurrence of R 2 and R 3 is independently a C 1-6 alkyl, and p and q are independently 0 to 4. wherein the hydrocarbyl is C 1-6 alkyl, C 1-6 alkoxy, or phenyl optionally substituted with 1 to 5 C 1-6 alkyls; and in formulas, and, R 1 is C 1-6 alkyl, C 1-6 alkoxy, or phenyl optionally substituted with 1 to 5 C 1-6 alkyls, each occurrence of R 2 and R 3 is independently a C 1-6 alkyl, and p and q are independently 0 to 4.
A method for spectrum handover in cognitive radio, CR, systems, comprising: using one of wireless network device identities, WNDIs, as a CR-dedicated wireless network device identity, CR-DWNDI, for UEs in a cell; generating, by a base station, a spectrum handover command after detecting a user of an authorized system appears at a current working frequency; sending, by the base station, the spectrum handover command via a channel identified by the CR-DWNDI to instruct the UEs in the cell to perform spectrum handover according to the spectrum handover command. using one of wireless network device identities, WNDIs, as a CR-dedicated wireless network device identity, CR-DWNDI, for UEs in a cell; generating, by a base station, a spectrum handover command after detecting a user of an authorized system appears at a current working frequency; sending, by the base station, the spectrum handover command via a channel identified by the CR-DWNDI to instruct the UEs in the cell to perform spectrum handover according to the spectrum handover command.
A method for installing sanitary equipment, of bath or shower type, comprising a recipient (10, 11) for collecting the water, provided with an external top edge (10a, 11a), in a room provided with a floor able to support the weight of said equipment and of its user, the method comprising the following sequences: (a) a shapeable rigid composite material, i.e. a material in sheet form, comprising a body made from plastic material, two aluminium sheets (3, 4) joined to and on each side of the body, one of the plates comprising a decorative outside face, said shapeable composite material presenting an intrinsic strength in any direction passing through its body, (b) before installation of the sanitary equipment is performed, by shaping of the rigid composite material, the final covering of said equipment is made in such a way that the latter is able to at least partially support the weight of said equipment and of its user, said covering being achieved with the decorative outside face of the composite material outside the covering, and to present a top flush-mounting rim and a continuous surface joining on the one side said flush-mounting rim and on the other side the floor at the location where the sanitary equipment is installed, (c) the final covering is fitted in place on the floor, at the location of the sanitary equipment, with the top flush-mounting rim facing upwards; and (d) after the final covering has been fitted in place on the floor, the water collection recipient (10, 11) is fitted over the top of the covering, so that the top rim (10a, 11a) of said recipient comes and fits in flush manner with the top rim of the covering. (a) a shapeable rigid composite material, i.e. a material in sheet form, comprising a body made from plastic material, two aluminium sheets (3, 4) joined to and on each side of the body, one of the plates comprising a decorative outside face, said shapeable composite material presenting an intrinsic strength in any direction passing through its body, (b) before installation of the sanitary equipment is performed, by shaping of the rigid composite material, the final covering of said equipment is made in such a way that the latter is able to at least partially support the weight of said equipment and of its user, said covering being achieved with the decorative outside face of the composite material outside the covering, and to present a top flush-mounting rim and a continuous surface joining on the one side said flush-mounting rim and on the other side the floor at the location where the sanitary equipment is installed, (c) the final covering is fitted in place on the floor, at the location of the sanitary equipment, with the top flush-mounting rim facing upwards; and (d) after the final covering has been fitted in place on the floor, the water collection recipient (10, 11) is fitted over the top of the covering, so that the top rim (10a, 11a) of said recipient comes and fits in flush manner with the top rim of the covering.
Method for the fastening of one or more electrically insulating thermoplastic bodies (2,3,31) on an electrode plate for the precipitation of metal from an electrolyte, characterised in that it is comprised of the following steps: a) the area on the electrode plate where the thermoplastic body (2,3,31) is applied is heated up to a temperature at or above the melting point for the thermoplastic body, b) the thermoplastic body (2,3,31) is brought onto the heated surface on the electrode plate, and the surface of the thermoplastic body that is in contact with the heated surface on the electrode plate melts, c) the thermoplastic body (2,3,31) is subjected to a pressure force that pushes the thermoplastic body against the surface of the electrode plate, where the pressure force is formed by one or more hoses (11,12,30,50), and d) the thermoplastic body (2,3,31) and the electrode plate are cooled down while the pressure force is maintained until the thermoplastic is in a stable form. a) the area on the electrode plate where the thermoplastic body (2,3,31) is applied is heated up to a temperature at or above the melting point for the thermoplastic body, b) the thermoplastic body (2,3,31) is brought onto the heated surface on the electrode plate, and the surface of the thermoplastic body that is in contact with the heated surface on the electrode plate melts, c) the thermoplastic body (2,3,31) is subjected to a pressure force that pushes the thermoplastic body against the surface of the electrode plate, where the pressure force is formed by one or more hoses (11,12,30,50), and d) the thermoplastic body (2,3,31) and the electrode plate are cooled down while the pressure force is maintained until the thermoplastic is in a stable form.
Balloon catheter (10, 10', 10'') for insertion into a substantially tubular hollow organ in the human or animal body, with - at least one fillable and emptiable expansion space (14, 14') between a front and a rear (12, 12'), a liquid or gaseous medium being able to be conveyed to and from the expansion space (14, 14') via at least one attachment piece with at least one lumen, and - a guide wire lumen with a flexible guide wire along a longitudinal axis (x-x) of the balloon catheter, wherein - the balloon catheter (10, 10', 10'') has at least two balloon sleeves (16, 16'), which are arranged one inside the other and are laid slidably over each other, and characterized in that, between the at least two balloon sleeves, at least one of the balloon sleeves lying directly on each other is provided with a thin coating that increases the slidability. - at least one fillable and emptiable expansion space (14, 14') between a front and a rear (12, 12'), a liquid or gaseous medium being able to be conveyed to and from the expansion space (14, 14') via at least one attachment piece with at least one lumen, and - a guide wire lumen with a flexible guide wire along a longitudinal axis (x-x) of the balloon catheter, wherein - the balloon catheter (10, 10', 10'') has at least two balloon sleeves (16, 16'), which are arranged one inside the other and are laid slidably over each other, and
A method for combining color images, the method comprising the steps of: splitting an image-forming beam into a reflected beam portion and a transmitted beam portion using a whole beam broad spectrum high dynamic range image beamsplitter; forming a plurality of color images on at least two image sensors (116, 128), the images being substantially identical except for their light levels; and combining the images to form a high dynamic range color image; characterized in that the image sensors are color filter array image sensors and that the images are combined prior to any de-mosaicing of the images to form a high dynamic range color image. splitting an image-forming beam into a reflected beam portion and a transmitted beam portion using a whole beam broad spectrum high dynamic range image beamsplitter; forming a plurality of color images on at least two image sensors (116, 128), the images being substantially identical except for their light levels; and combining the images to form a high dynamic range color image; characterized in that the image sensors are color filter array image sensors and that the images are combined prior to any de-mosaicing of the images to form a high dynamic range color image.
A method performed by a network node serving a first cell in a wireless network, for reducing interference in a second cell caused by transmission of reference signals in the first cell, the method comprising: - transmitting (504, 7:3) in the first cell a scheduling block where a number of said reference signals are located in predefined resource element positions in the scheduling block, using a time offset relative transmission of a scheduling block in the second cell, wherein the time offset is a fraction of the duration of an OFDM symbol, wherein the time offset is any of 1/2, 1/3 and 2/3 of the duration of an OFDM symbol, wherein the first cell and the second cell transmits on the same frequency. - transmitting (504, 7:3) in the first cell a scheduling block where a number of said reference signals are located in predefined resource element positions in the scheduling block, using a time offset relative transmission of a scheduling block in the second cell, wherein the time offset is a fraction of the duration of an OFDM symbol, wherein the time offset is any of 1/2, 1/3 and 2/3 of the duration of an OFDM symbol, wherein the first cell and the second cell transmits on the same frequency.
A system comprising: a combination engine to combine an encrypted device identification associated with identifying a device accessing a network and a routing indicator, the combination resulting in a combined device identification, wherein the encrypted device identification is encrypted using a first encryption key that is unknown to one or more additional devices connected to the network; an encryption engine to encrypt the combined device identification, wherein the combined device identification is encrypted using a second encryption key that is known to the one or more additional devices connected to the network; and a transmission engine to transmit the encrypted combined device identification when communicating information from the device via the network. a combination engine to combine an encrypted device identification associated with identifying a device accessing a network and a routing indicator, the combination resulting in a combined device identification, wherein the encrypted device identification is encrypted using a first encryption key that is unknown to one or more additional devices connected to the network; an encryption engine to encrypt the combined device identification, wherein the combined device identification is encrypted using a second encryption key that is known to the one or more additional devices connected to the network; and a transmission engine to transmit the encrypted combined device identification when communicating information from the device via the network.