mhurhangee/ep-ind-claims huggingface dataset:
A screw cap for a screw head, comprising: a tubular body, having an end wall at a distal end portion and an opening at a proximal end portion along a centre axis; at least one first coupling member (114, 122) arranged coaxially to said centre axis at said distal end portion, adapted to retainingly receive at least a portion of a first-type screw head; and at least one second coupling member (108, 118) arranged coaxially with, and axially proximal to, said at least one first coupling member (114, 122), adapted to retainingly receive at least a portion of a second-type screw head; wherein said at least one first coupling member comprises at least one first surrounding wall member, and at least one second radial wall member arranged concentric to and facing said first surrounding wall member, said at least one first surrounding wall member and said at least one second radial wall member protruding from said end wall towards said proximal end portion along said centre axis, so as to form a substantially annularly shaped recess coaxial with said tubular body and adapted to matingly receive at least a portion of the first-type screw head; wherein said second coupling member comprises at least two spaced apart rib members, each rib member extending radially inwardly from an inner surface of said tubular body so as to couplingly engage with at least a portion of the second-type screw head, during use; and wherein the diameter defined by the circumferentially spaced apart rib members is greater than the diameter defined by the annularly shaped recess. a tubular body, having an end wall at a distal end portion and an opening at a proximal end portion along a centre axis; at least one first coupling member (114, 122) arranged coaxially to said centre axis at said distal end portion, adapted to retainingly receive at least a portion of a first-type screw head; and at least one second coupling member (108, 118) arranged coaxially with, and axially proximal to, said at least one first coupling member (114, 122), adapted to retainingly receive at least a portion of a second-type screw head; wherein said at least one first coupling member comprises at least one first surrounding wall member, and at least one second radial wall member arranged concentric to and facing said first surrounding wall member, said at least one first surrounding wall member and said at least one second radial wall member protruding from said end wall towards said proximal end portion along said centre axis, so as to form a substantially annularly shaped recess coaxial with said tubular body and adapted to matingly receive at least a portion of the first-type screw head; wherein said second coupling member comprises at least two spaced apart rib members, each rib member extending radially inwardly from an inner surface of said tubular body so as to couplingly engage with at least a portion of the second-type screw head, during use; and wherein the diameter defined by the circumferentially spaced apart rib members is greater than the diameter defined by the annularly shaped recess.
A system, comprising: an encoder; and a device operable to intercept a Property Management Systems request to the encoder to obtain card data from the encoder and determine if the request is for a virtual card, wherein the device is configured to, when the PMS request is for a virtual card, send a request addressed to encoder 0 supporting legacy encoders to retrieve virtual card data; then send a message comprising data elements including the virtual card data to a credential service, the credential service operable to manage digital access credentials by creating a virtual key using the virtual card data that is operable to operate an access control device for unlocking an electronic door lock and to provision a mobile phone with the virtual key; and then upon receiving a successful response from the credential service send a message to the PMS to indicate that the operation was completed successfully; and wherein the device is not detectable nor affects the operation of, or the formatting of, the data and communications that is sent back and forth to the PMS and the encoder except when the PMS requests a virtual card. an encoder; and a device operable to intercept a Property Management Systems request to the encoder to obtain card data from the encoder and determine if the request is for a virtual card, wherein the device is configured to, when the PMS request is for a virtual card, send a request addressed to encoder 0 supporting legacy encoders to retrieve virtual card data; then send a message comprising data elements including the virtual card data to a credential service, the credential service operable to manage digital access credentials by creating a virtual key using the virtual card data that is operable to operate an access control device for unlocking an electronic door lock and to provision a mobile phone with the virtual key; and then upon receiving a successful response from the credential service send a message to the PMS to indicate that the operation was completed successfully; and wherein the device is not detectable nor affects the operation of, or the formatting of, the data and communications that is sent back and forth to the PMS and the encoder except when the PMS requests a virtual card.
A vacuum cleaner comprising a dust-bag-housing made of a plurality of housing panels (104a, 104b, 104c, 104e); wherein the housing panels (104a, 104b, 104c, 104e) define a chamber in the dust-bag-housing for containing a dust bag; characterized in that each of the housing panels (104a, 104b, 104c, 104e) is made of paper and has edges and opposing faces, the housing panels being arrayed such that the faces of the plurality of housing panels are in face-wise contact; and further comprising an overlaying panel overlaid on the edges of the housing panels (104a, 104b, 104c, 104e) and secured to the housing panels to hold the housing panels together.
Use as an antibacterial of a nanofiber comprising a polymer possessing electron-withdrawing groups and/or electron-withdrawing atomic groups, which polymer has a ratio of (the bond energy at 25°C of electron-withdrawing groups and/or electron-withdrawing atomic groups present in a smallest unit of the polymer) to (the sum of the bond energies at 25°C of the bonds within the smallest unit of the polymer) of at least 0.13, wherein the bond energies are calculated using the following values in kJ/mol: C-O, 329; C=O, 804; C=C, 588; C=S, 578; C-C, 357; C-H, 416; C-N, 273; C-I, 238; C-Br, 276; C-Cl, 327; C-F, 489; N-H, 391; and N-N, 418; said polymer is one whose bonds are selected from those whose energies are given above and is selected from a polyester resin, a polyamide resin, a polyamideimide resin, a polyvinyl chloride resin or polystyrene; and wherein the nanofiber has an average fiber diameter of at least 1 nm but less than 1,000 nm, and wherein the nanofiber has inherent antibacterial properties due to the polymer and not dependent on the presence of other antibacterial agents.
A method for filtering content objects on a per user basis at a gateway node in a content centric networking, CCN, network, where the gateway node has a network interface with a network of a user device originating a CCN interest packet, the method comprising the steps of: receiving a CCN interest packet including a CCN name and obtaining a user identity; retrieving a content object identified by the CCN name matching destination address and network of the particular content object; retrieving allowed categories of the user, identifying each of the categories of content that the user is allowed to access; retrieving categories of the content object; checking whether allowed categories of the user enable retrieval of the content object based on comparison with the categories of the content object; and forwarding the content object to user in response to the allowed categories enabling retrieval of the content object for the user. receiving a CCN interest packet including a CCN name and obtaining a user identity; retrieving a content object identified by the CCN name matching destination address and network of the particular content object; retrieving allowed categories of the user, identifying each of the categories of content that the user is allowed to access; retrieving categories of the content object; checking whether allowed categories of the user enable retrieval of the content object based on comparison with the categories of the content object; and forwarding the content object to user in response to the allowed categories enabling retrieval of the content object for the user.
Refractory tile system for covering an internal wall of a high temperature furnace or boiler, comprising base tiles each having a front face (1") and a back face, and shielding tiles each having a front face (11") and a back face, wherein the said back faces of said base tiles each comprise one or more attachment points for mounting the base tile to the said internal wall using an anchoring system, and wherein the said shielding tiles are each equipped with a protrusion along a first side, extending from the back face of each shielding tile and adapted to stably arrange each shielding tile in a suspended position from each said base tile when mounted to the said internal wall, and an overhang along a second side opposite the said first side and extending from the front side (11") of each shielding tile, such that in a mounted position, each said overhang covers a portion of an adjacent shielding tile base tiles each having a front face (1") and a back face, and shielding tiles each having a front face (11") and a back face,
A method for forming a semiconductor structure, comprising providing a transistor device having a semiconductor layer (12, 13), a first electrode, a second electrode, and a control electrode for controlling a flow of carriers between the first electrode and the second electrode; depositing a silicon nitride passivation layer over the first electrode, the second electrode and the control electrode; depositing an aluminium oxide etch stop layer on the silicon nitride passivation layer, such etch stop layer being disposed over the control electrode; forming a silicon nitride dielectric layer over the aluminium oxide etch stop layer; and etching a window through a selected region in the dielectric layer over the control electrode, to expose a portion of the etch stop layer disposed over the control electrode. providing a transistor device having a semiconductor layer (12, 13), a first electrode, a second electrode, and a control electrode for controlling a flow of carriers between the first electrode and the second electrode; depositing a silicon nitride passivation layer over the first electrode, the second electrode and the control electrode; depositing an aluminium oxide etch stop layer on the silicon nitride passivation layer, such etch stop layer being disposed over the control electrode; forming a silicon nitride dielectric layer over the aluminium oxide etch stop layer; and etching a window through a selected region in the dielectric layer over the control electrode, to expose a portion of the etch stop layer disposed over the control electrode.
A well production system having a wellhead master valve for use in a production well having a wellhead attached to a production tubing, comprising: a body member connecting the wellhead and the production tubing and having an upstream inlet bore, a downstream outlet bore, and an interior chamber; a fluid bypass pathway connecting the upstream inlet bore upstream each of any flow control member of the wellhead to a port in the body member to allow fluid communication with the production tubing independent of a position of the any flow control member of the wellhead; a communication conduit (126, 168, 192, 128) having an upper end and a distal end installed through the fluid bypass pathway a flow control member disposed in the interior chamber to regulate a fluid flow from the upstream inlet bore to the downstream outlet bore; and a subsurface safety valve disposed in the production tubing, the subsurface safety valve connected to the distal end of the communication conduit (126, 168, 192, 128) and characterized in that: the communication conduit (126, 168, 192, 128) is a production enhancing fluid communication conduit and in that the well production system further comprises a lower communication conduit extending upstream from the subsurface safety valve, the lower communication conduit being in fluid communication with the communication conduit (126, 168, 192) through an interior passage of the subsurface safety valve. a body member connecting the wellhead and the production tubing and having an upstream inlet bore, a downstream outlet bore, and an interior chamber; a fluid bypass pathway connecting the upstream inlet bore upstream each of any flow control member of the wellhead to a port in the body member to allow fluid communication with the production tubing independent of a position of the any flow control member of the wellhead; a communication conduit (126, 168, 192, 128) having an upper end and a distal end installed through the fluid bypass pathway a flow control member disposed in the interior chamber to regulate a fluid flow from the upstream inlet bore to the downstream outlet bore; and a subsurface safety valve disposed in the production tubing, the subsurface safety valve connected to the distal end of the communication conduit (126, 168, 192, 128) and characterized in that: the communication conduit (126, 168, 192, 128) is a production enhancing fluid communication conduit and in that the well production system further comprises a lower communication conduit extending upstream from the subsurface safety valve, the lower communication conduit being in fluid communication with the communication conduit (126, 168, 192) through an interior passage of the subsurface safety valve.
A biologically pure bacterial isolate selected from the group consisting of Bacillus strains NRRL B-50800, NRRL B-50801, NRRL B-50802, and NRRL B-50803.
A method of detecting faults within a telecommunications network, said telecommunications network comprising a plurality of entities, the method comprising: grouping said entities into one or more groups based on the call traffic handled by said entities or on the call traffic said entities are configured to handle; for at least one of said groups, monitoring the call length pattern of a plurality of grouped entities of said group; and for at least one of said grouped entities, comparing the monitored call length pattern of the grouped entity with the monitored call length pattern of one or more of the other grouped entities to determine if the behaviour of said grouped entity is indicative of a fault, wherein the step of grouping said entities into one or more groups based on the call traffic handled by said entities comprises: monitoring the call length pattern for each of said plurality of entities for the duration of a learning period, comparing the monitored call length patterns of said plurality of entities, and grouping together those entities based on their call length patterns. grouping said entities into one or more groups based on the call traffic handled by said entities or on the call traffic said entities are configured to handle; for at least one of said groups, monitoring the call length pattern of a plurality of grouped entities of said group; and for at least one of said grouped entities, comparing the monitored call length pattern of the grouped entity with the monitored call length pattern of one or more of the other grouped entities to determine if the behaviour of said grouped entity is indicative of a fault, monitoring the call length pattern for each of said plurality of entities for the duration of a learning period, comparing the monitored call length patterns of said plurality of entities, and grouping together those entities based on their call length patterns.
A method for locating an airborne aircraft, the method comprising: communicating an interrogation signal to the airborne aircraft and a plurality of slave ground receivers (104a-104i) from a master ground station, wherein the interrogation signal is communicated at a time of transmit, TOT, from the master ground station, and wherein the interrogation signal communicated to each of the plurality of slave ground receivers (104a-104i) is a timing signal (118a-118i) used by each of the plurality of slave ground receivers (104a-104i) to synchronize a system time; receiving a first interrogation reply signal from the airborne aircraft at the master ground station; determining a first time of arrival, TOA, using the first interrogation reply signal; receiving a second interrogation reply signal at a first slave ground receiver of the plurality of slave ground receivers (104a-104i); determining a second TOA using the second interrogation reply signal; receiving a third interrogation reply signal at a second slave ground receiver of the plurality of slave ground receivers (104a-104i); determining a third TOA using the third interrogation reply signal; and determining at least a two dimensional location of the airborne aircraft based on at least one of a multilateration calculation or an elliptical calculation, wherein the multilateration calculation uses three time difference of arrivals, TDOAs, wherein the elliptical calculation uses two round trip delay times, RTDTs, and wherein the three TDOAs and the two RTDTs are determined from a combination of the TOT, the first TOA, the second TOA, and the third TOA. communicating an interrogation signal to the airborne aircraft and a plurality of slave ground receivers (104a-104i) from a master ground station, wherein the interrogation signal is communicated at a time of transmit, TOT, from the master ground station, and wherein the interrogation signal communicated to each of the plurality of slave ground receivers (104a-104i) is a timing signal (118a-118i) used by each of the plurality of slave ground receivers (104a-104i) to synchronize a system time; receiving a first interrogation reply signal from the airborne aircraft at the master ground station; determining a first time of arrival, TOA, using the first interrogation reply signal; receiving a second interrogation reply signal at a first slave ground receiver of the plurality of slave ground receivers (104a-104i); determining a second TOA using the second interrogation reply signal; receiving a third interrogation reply signal at a second slave ground receiver of the plurality of slave ground receivers (104a-104i); determining a third TOA using the third interrogation reply signal; and determining at least a two dimensional location of the airborne aircraft based on at least one of a multilateration calculation or an elliptical calculation, wherein the multilateration calculation uses three time difference of arrivals, TDOAs, wherein the elliptical calculation uses two round trip delay times, RTDTs, and wherein the three TDOAs and the two RTDTs are determined from a combination of the TOT, the first TOA, the second TOA, and the third TOA.
A polyurethane foam obtained from a polyurethane foaming raw material containing a polyol, a polyisocyanate, a foaming agent, a catalyst, and a flame retardant, wherein the polyol contains a polyester polyol which has one or more side chains composed of an alkyl group, which is a polymerization product containing an aliphatic branched glycol and an aliphatic dicarboxylic acid as constituting units, the polyisocyanate is a diphenylmethane diisocyanate-based isocyanate, the flame retardant is composed of any one or both of powder flame retardants of expanded graphite and a phosphorus-based powder flame retardant and the adding amount is 20 parts by mass or more per 100 parts by mass of the polyol, and the polyurethane foam has a density, measured according to JIS K7222:2005, of from 80 to 120 kg/m 3.
Device (1, 30) for separating a heavy fraction from a fluid, comprising: - a main channel (20, 20'), surrounded by a substantially cylindrical housing (2, 2', 25); - swirl means, positioned in the main channel (20, 20'), for transferring a rotating movement component to the fluid moving through the main channel (20, 20'); - collecting means, which in radially direction to openings (12, 26) in the cylindrical housing (2, 2', 25) adjoin to the main channel (20, 20'), for collecting the discharged heavy fraction; - a concentric additional supply conduit (3, 3', 3", 3"'), provided with an outlet, which additional supply conduit (3, 3', 3", 3"') at least partly extends into the cylindrical housing (2, 2', 25); - a return channel, which connects the collecting means with the additional supply conduit (3, 3', 3", 3'"), and - the additional supply conduit (3, 3', 3", 3"') is provided with deflection means, which are positioned downstream of the outlet, for providing a movement component in radial direction to the returning fluid fraction moving through the return channel, characterized in that - the outlet of the additional supply conduit (3, 3', 3", 3'") is encircling the circumference of the additional supply conduit (3, 3', 3", 3"'). - a main channel (20, 20'), surrounded by a substantially cylindrical housing (2, 2', 25); - swirl means, positioned in the main channel (20, 20'), for transferring a rotating movement component to the fluid moving through the main channel (20, 20'); - collecting means, which in radially direction to openings (12, 26) in the cylindrical housing (2, 2', 25) adjoin to the main channel (20, 20'), for collecting the discharged heavy fraction; - a concentric additional supply conduit (3, 3', 3", 3"'), provided with an outlet, which additional supply conduit (3, 3', 3", 3"') at least partly extends into the cylindrical housing (2, 2', 25); - a return channel, which connects the collecting means with the additional supply conduit (3, 3', 3", 3'"), and - the additional supply conduit (3, 3', 3", 3"') is provided with deflection means, which are positioned downstream of the outlet, for providing a movement component in radial direction to the returning fluid fraction moving through the return channel, - the outlet of the additional supply conduit (3, 3', 3", 3'") is encircling the circumference of the additional supply conduit (3, 3', 3", 3"').