mhurhangee/ep-ind-claims huggingface dataset:
A gas heater comprising: - a premix burner having a burner deck; - a supply channel fluidly connected to a supply of gaseous fuel, to a supply of air, and to the burner for supplying a mixture of the gaseous fuel and the air to the burner, wherein the supply channel comprises a mixing area upstream of the burner in which mixing area, in operation, the gaseous fuel and the air start to mix; and - a check valve placed in the supply channel downstream of the mixing area and upstream of the burner, the check valve comprising a valve seat and a moveable valve body, wherein the valve body has a first end position in which the check valve is opened and in the direction of which the valve body is urged in a first pressure condition in which a pressure upstream from the check valve is higher than a pressure downstream of the check valve, wherein the valve body has a second end position in which the check valve is closed and to which the valve body is urged in the event of a flashback, characterised in that the configuration of the check valve is such that, after closure of the check valve due to flashback, the check valve remains closed for a delay time. - a premix burner having a burner deck; - a supply channel fluidly connected to a supply of gaseous fuel, to a supply of air, and to the burner for supplying a mixture of the gaseous fuel and the air to the burner, wherein the supply channel comprises a mixing area upstream of the burner in which mixing area, in operation, the gaseous fuel and the air start to mix; and - a check valve placed in the supply channel downstream of the mixing area and upstream of the burner, the check valve comprising a valve seat and a moveable valve body, wherein the valve body has a first end position in which the check valve is opened and in the direction of which the valve body is urged in a first pressure condition in which a pressure upstream from the check valve is higher than a pressure downstream of the check valve, wherein the valve body has a second end position in which the check valve is closed and to which the valve body is urged in the event of a flashback, characterised in that the configuration of the check valve is such that, after closure of the check valve due to flashback, the check valve remains closed for a delay time.
A light-emitting device, comprising: an electron blocking layer comprising a first AlGaInP material; a hole blocking layer comprising a second AlGaInP material; and an active layer between the hole blocking layer and the electron blocking layer, characterized in that, the second AlGaInP material has a composition represented as (Al x Ga (1-x)) 1-y In y P, where 0.4 < x < 1 and 0.49 < y < 0.7, and a greater ratio of indium than a ratio of indium in the first AlGaInP material, at least a portion of the electron blocking layer is arranged to have a tensile strain and at least a portion of the hole blocking layer is arranged to have a compressive strain. an electron blocking layer comprising a first AlGaInP material; a hole blocking layer comprising a second AlGaInP material; and an active layer between the hole blocking layer and the electron blocking layer, characterized in that, the second AlGaInP material has a composition represented as (Al x Ga (1-x)) 1-y In y P, where 0.4 < x < 1 and 0.49 < y < 0.7, and a greater ratio of indium than a ratio of indium in the first AlGaInP material, at least a portion of the electron blocking layer is arranged to have a tensile strain and at least a portion of the hole blocking layer is arranged to have a compressive strain.
A method, comprising: capturing data packets from a network via a processor to provide captured packets; the processor determining a packet type for the captured packets to provide packet type information; and the processor performing layered packet decoding on the captured packets to provide decoded packet information; the method characterized by comprising: the processor reassembling a session from the decoded packet information and the packet type information; performing layered session decoding on the reassembled session to provide layered session decoding information; extracting session metadata from the layered session decoding information; extracting packet metadata from the decoded packet information; storing the session and packet metadata; and analyzing the session and packet metadata to detect advanced persistent threats on the network. capturing data packets from a network via a processor to provide captured packets; the processor determining a packet type for the captured packets to provide packet type information; and the processor performing layered packet decoding on the captured packets to provide decoded packet information; the method characterized by comprising: the processor reassembling a session from the decoded packet information and the packet type information; performing layered session decoding on the reassembled session to provide layered session decoding information; extracting session metadata from the layered session decoding information; extracting packet metadata from the decoded packet information; storing the session and packet metadata; and analyzing the session and packet metadata to detect advanced persistent threats on the network. the processor reassembling a session from the decoded packet information and the packet type information; performing layered session decoding on the reassembled session to provide layered session decoding information; extracting session metadata from the layered session decoding information; extracting packet metadata from the decoded packet information; storing the session and packet metadata; and analyzing the session and packet metadata to detect advanced persistent threats on the network.
A method for preparing multichaperone-antigen complexes which comprise a combination of at least two different heat shock proteins selected from the group consisting of HSP40, HSP70, HSP90, HSP110, HIP, BIP, and calreticulin, said method comprising the steps of: (a) contacting a biological sample with a solid phase to which HOP affinity molecules are covalently bound, under conditions such that multichaperone-antigen complexes in the biological sample bind said HOP affinity molecules, wherein the HOP affinity molecules comprise HOP TPR1, having an amino acid sequence as set forth in SEQ ID NO: 1, HOP TPR2a, having an amino acid sequence as set forth in SEQ ID NO: 2. HOP TPR1/2a, having an amino acid sequence as set forth in SEQ ID NO: 3, or a combination or variant of any one or more of the foregoing, wherein a variant is a HOP affinity molecule defined above containing deletions, insertions, substitutions or other modifications relative to the native HOP affinity molecule sequence and retains the specificity of the native HOP affinity molecule to bind heat shock proteins; (b) removing unbound components in the biological sample away from the solid phase; (c) eluting multichaperone-antigen complexes from the solid phase; and (d) recovering the eluted multichaperone-antigen complexes. (a) contacting a biological sample with a solid phase to which HOP affinity molecules are covalently bound, under conditions such that multichaperone-antigen complexes in the biological sample bind said HOP affinity molecules, wherein the HOP affinity molecules comprise HOP TPR1, having an amino acid sequence as set forth in SEQ ID NO: 1, HOP TPR2a, having an amino acid sequence as set forth in SEQ ID NO: 2. HOP TPR1/2a, having an amino acid sequence as set forth in SEQ ID NO: 3, or a combination or variant of any one or more of the foregoing, wherein a variant is a HOP affinity molecule defined above containing deletions, insertions, substitutions or other modifications relative to the native HOP affinity molecule sequence and retains the specificity of the native HOP affinity molecule to bind heat shock proteins; (b) removing unbound components in the biological sample away from the solid phase; (c) eluting multichaperone-antigen complexes from the solid phase; and (d) recovering the eluted multichaperone-antigen complexes. (b) removing unbound components in the biological sample away from the solid phase; (c) eluting multichaperone-antigen complexes from the solid phase; and (d) recovering the eluted multichaperone-antigen complexes.
A deflection device of an inspection device, wherein the deflection device has: - a working appliance having a main body and a pivoting device, - a flexible fastening device having a first end and a second end, said main body being preferably arranged on said first end in a detachable manner, and - a pulling means having a first end and a second end, said first end of said pulling means being fastened to the pivoting device, characterised in that - the second end of the pulling means is fastened to the fastening device in the region of the second end thereof, - the main body comprises a camera housing, the pivoting device being arranged on or in said camera housing in such a manner as to be pivotable about a pivot axis relative to the camera housing, and - the working appliance comprises a camera head, said pivoting device having an objective lens and an image capturing unit. - a working appliance having a main body and a pivoting device, - a flexible fastening device having a first end and a second end, said main body being preferably arranged on said first end in a detachable manner, and - a pulling means having a first end and a second end, said first end of said pulling means being fastened to the pivoting device, - the second end of the pulling means is fastened to the fastening device in the region of the second end thereof, - the main body comprises a camera housing, the pivoting device being arranged on or in said camera housing in such a manner as to be pivotable about a pivot axis relative to the camera housing, and - the working appliance comprises a camera head, said pivoting device having an objective lens and an image capturing unit.
A laminating acrylic thermoplastic polymer composition for lamination with a layer including a plasticizer-containing polymer composition that contains a plasticizer, wherein the acrylic thermoplastic polymer composition comprises an acrylic block copolymer including at least one polymer block containing methacrylic acid ester units and at least one polymer block containing acrylic acid ester units; and the acrylic acid ester units constituting the polymer block in the acrylic block copolymer include an acrylic acid ester unit represented by the general formula CH 2 =CH-COOR 1 (wherein R 1 is an organic group having 1 to 3 carbon atoms), wherein the acrylic acid ester units constituting the polymer block include an acrylic acid ester unit represented by the general formula CH 2 =CH-COOR 1 (wherein R 1 is an organic group having 1 to 3 carbon atoms) and an acrylic acid ester unit represented by the general formula CH 2 =CH-COOR 2 (wherein R 2 is an organic group having 4 to 12 carbon atoms), and the mass ratio / of the acrylic acid ester unit to the acrylic acid ester unit is 90/10 to 10/90, wherein the acrylic acid ester unit is methyl acrylate.
A transmitting unit (111, 112) for a communications system, comprising: means for determining characteristics of a transmission channel between the transmitting unit and a receiving unit, wherein symbols are transmitted by Orthogonal Frequency Divisional Multiplexing, OFDM, between the transmitting unit and the receiving unit, wherein the symbol transmission is executed over the transmission channel in blocks of binary digits with a guard interval between the blocks; means for determining the size of a cell in which the transmitting unit transmits based on the determined channel characteristics; means for determining a guard interval length which gives rise to an intersymbol interference within acceptable limits based on the determined size of the cell; and means for adjusting (115, 116) the guard interval used by the transmitting unit based on the determined guard interval length for the size of the cell. means for determining characteristics of a transmission channel between the transmitting unit and a receiving unit, wherein symbols are transmitted by Orthogonal Frequency Divisional Multiplexing, OFDM, between the transmitting unit and the receiving unit, wherein the symbol transmission is executed over the transmission channel in blocks of binary digits with a guard interval between the blocks; means for determining the size of a cell in which the transmitting unit transmits based on the determined channel characteristics; means for determining a guard interval length which gives rise to an intersymbol interference within acceptable limits based on the determined size of the cell; and means for adjusting (115, 116) the guard interval used by the transmitting unit based on the determined guard interval length for the size of the cell.
A termination unit for a superconductor network, the termination unit comprising a primary system that comprises: • a first superconductor cable; and • a terminal comprising a first leg, the first leg comprising an aperture configured to receive the first superconductor cable, the first leg defining a clearance about the first superconductor cable at ambient temperature and arranged to firmly clamp onto the first superconductor cable at a cryogenic temperature, wherein the first leg is made of a material that contracts as it is cooled to cryogenic temperatures; wherein the first leg contracts more than the first superconductor cable during cooling; and the termination unit comprising a cooling system arranged to enclose and cool the primary system to cryogenic temperatures. • a first superconductor cable; and • a terminal comprising a first leg, the first leg comprising an aperture configured to receive the first superconductor cable, the first leg defining a clearance about the first superconductor cable at ambient temperature and arranged to firmly clamp onto the first superconductor cable at a cryogenic temperature, wherein the first leg is made of a material that contracts as it is cooled to cryogenic temperatures; wherein the first leg contracts more than the first superconductor cable during cooling;
A method for controlling the 2-phenyl isomer content of linear alkylbenzene obtained by alkylating a benzene with an olefin comprising reacting under alkylation reaction conditions a substantially linear olefin with benzene in a process stream comprising water and in the presence of a catalyst and controlling the water concentration in the range from bone dry to 100 ppm, said catalyst comprising a first catalyst component zeolite selected from the group consisting of rare earth-containing faujasite and blends thereof, and a second catalyst component zeolite selected from the group consisting of UZM-8, Zeolite MWW, Zeolite BEA, Zeolite OFF, Zeolite MOR, Zeolite LTL, Zeolite MTW, BPH/UZM-4, and blends thereof.
A visualization catheter comprising: an elongate shaft including a proximal end, a distal end, and a central axis defined therebetween; a cap portion (134; 434) coupled to the distal end of the shaft, the cap portion (134; 434) extending distally from the distal end of the elongate shaft and comprising a visualization element (137; 237) and defining an aperture, wherein the visualization element (137; 237) and is directed in a direction oblique or orthogonal to the central axis of the shaft; and an offset balloon coupled to the distal end of the shaft, the offset balloon encapsulating the cap portion and, when inflated, defining a center point offset relative to the central axis of the shaft; characterized in that visualization element is a camera. an elongate shaft including a proximal end, a distal end, and a central axis defined therebetween; a cap portion (134; 434) coupled to the distal end of the shaft, the cap portion (134; 434) extending distally from the distal end of the elongate shaft and comprising a visualization element (137; 237) and defining an aperture, wherein the visualization element (137; 237) and is directed in a direction oblique or orthogonal to the central axis of the shaft; and an offset balloon coupled to the distal end of the shaft, the offset balloon encapsulating the cap portion and, when inflated, defining a center point offset relative to the central axis of the shaft; characterized in that visualization element is a camera.
A centrifugal separator for cleaning a gas containing liquid impurities, wherein the centrifugal separator comprises a stationary casing, enclosing a separation space through which a gas flow is permitted, the stationary casing comprising a surrounding side wall, a first end wall and a second end wall, an inlet extending through the stationary casing and permitting supply of the gas to be cleaned, a rotating member comprising a stack of separation disks and being arranged to rotate around an axis (x) of rotation, a drive member, for rotating the rotating member, a gas outlet configured to permit discharge of cleaned gas, wherein the gas outlet comprises an outlet opening through the stationary casing and an upstream portion extending from the outlet opening, and a drainage outlet configured to permit discharge of liquid impurities separated from the gas, characterized in that the drainage outlet is provided in the gas outlet downstream the upstream portion, wherein the gas outlet is configured to convey the liquid impurities to the drainage outlet.
Battery cell, comprising at least one first battery cell element and one second battery cell element, which are electrically connected to one another via at least one current collector (21, 22, 23), and a sensor for monitoring at least one parameter of the battery cell, characterized in that the sensor is designed in such a way that the sensor generates a detectable change in an output signal only in the event of a fault of the battery cell, wherein the battery cell has at least one cell terminal that serves as an electrical contact of the battery cell, wherein the sensor is integrated in the cell terminal. at least one first battery cell element and one second battery cell element, which are electrically connected to one another via at least one current collector (21, 22, 23), and a sensor for monitoring at least one parameter of the battery cell, characterized in that the sensor is designed in such a way that the sensor generates a detectable change in an output signal only in the event of a fault of the battery cell, wherein the battery cell has at least one cell terminal that serves as an electrical contact of the battery cell, wherein the sensor is integrated in the cell terminal.
A time synchronization method, comprising: on the basis that boundary devices in an entire network are all boundary clock, BC, devices, receiving, by a boundary device of a third-party network side, a synchronization packet that carries a time synchronization offset and is delivered by a boundary device of an upstream network side, wherein the time synchronization offset is a time offset between a time domain of the upstream network and a time domain of the third-party network, wherein a time domain in which the boundary device of the third-party network side is located is different from a time domain in which the boundary device of the upstream network side is located; and transparently transmitting, by the boundary device of the third-party network side, the synchronization packet that carries the time synchronization offset to a boundary device of a downstream network side, wherein the boundary device of the upstream network side and the boundary device of the downstream network side are in a same time domain, and wherein the synchronization packet is used by the boundary device of the downstream network side for performing time synchronization with the boundary device of the upstream network side according to the time synchronization offset. on the basis that boundary devices in an entire network are all boundary clock, BC, devices, receiving, by a boundary device of a third-party network side, a synchronization packet that carries a time synchronization offset and is delivered by a boundary device of an upstream network side, wherein the time synchronization offset is a time offset between a time domain of the upstream network and a time domain of the third-party network, wherein a time domain in which the boundary device of the third-party network side is located is different from a time domain in which the boundary device of the upstream network side is located; and transparently transmitting, by the boundary device of the third-party network side, the synchronization packet that carries the time synchronization offset to a boundary device of a downstream network side, wherein the boundary device of the upstream network side and the boundary device of the downstream network side are in a same time domain, and wherein the synchronization packet is used by the boundary device of the downstream network side for performing time synchronization with the boundary device of the upstream network side according to the time synchronization offset.
A diffractive multifocal lens comprising an optical element having a first diffractive optical surface having a radial surface profile comprising a plurality of concentric annular zones concentric with a central zone and assignable, from the outer edge of the central zone to the edge of the lens, as alternating odd and even numbered zones each having a projected surface area that is equal, wherein the optical thickness of the lens changes monotonically within each zone, a distinct step in optical thickness occurs at the junction between the zones (136, 138), the height of the steps differs between adjacent zones, and a pattern of step height differences between two or more adjacent zones repeats periodically from the center to the edge of the lens so as to tailor the proportions of the diffraction order efficiencies of at least a zeroth, positive first, and positive second, diffractive order of the radial surface profile of the optical element.
A utility knife blade comprising: a portion made of a first material; and an elongated portion including a second material, the second material being harder than the first material and coated on the first material by melting a powder of the second material on the first material, the elongated portion forming the tip of the blade, wherein the second material includes tungsten carbide particles embedded in a soft binder, and the size of at least 90% of the tungsten carbide particles is lower than about 5 micrometers; characterised in that the first material is a hardened and tempered steel material and the portion made of the first material has an intermediate portion immediately behind the deposited layer of the second material and the intermediate portion is hardened during deposition of the second material; wherein the hardness of the intermediate portion is less than the hardness of the second material and greater than the hardness of the first material. a portion made of a first material; and an elongated portion including a second material, the second material being harder than the first material and coated on the first material by melting a powder of the second material on the first material, the elongated portion forming the tip of the blade, wherein the second material includes tungsten carbide particles embedded in a soft binder, and the size of at least 90% of the tungsten carbide particles is lower than about 5 micrometers;