mhurhangee/ep-ind-claims huggingface dataset:
A method, implemented by a network device, for selection of a routing table in a Policy Based Routing, PBR, system, the method comprising: receiving a packet from a first network domain in a set of network domains (102,104); generating a firewall mark for the packet, wherein the firewall mark includes a network domain indication and a packet classification indication; the method being characterised by determining a match between the network domain indication of the packet and a selector of a matched PBR rule (210 1) in a set of PBR rules (210 1 - 210 N) wherein the action predicate of the matched PBR rules includes a function that takes the firewall mark of the packet as an argument and outputs an identifier of the routing table in a first set of routing tables (212 1 - 212 256). receiving a packet from a first network domain in a set of network domains (102,104); generating a firewall mark for the packet, wherein the firewall mark includes a network domain indication and a packet classification indication; the method being characterised by determining a match between the network domain indication of the packet and a selector of a matched PBR rule (210 1) in a set of PBR rules (210 1 - 210 N) wherein the action predicate of the matched PBR rules includes a function that takes the firewall mark of the packet as an argument and outputs an identifier of the routing table in a first set of routing tables (212 1 - 212 256).
An apparatus for use in forming a bonded joint, comprising: a strongback support tool; a spacer that is connected to one side of said strongback support tool and projects away from said strongback support tool, said spacer extending completely around a space adjacent to said one side of said strongback support tool and comprising at least one throughhole; an expandable apparatus having a first portion attached to said one side of said strongback support tool and having a second portion that displaces away from said first portion of said expandable apparatus when said expandable apparatus is expanded, said expandable apparatus being disposed within said space when in a retracted state and when in an expanded state; a tooling pressure plate mounted to said second portion of said expandable apparatus; a heating blanket attached to said tooling pressure plate; a caul plate attached to said heating blanket; and a repair patch attached to said caul plate, said repair patch comprising fiber-reinforced plastic. a strongback support tool; a spacer that is connected to one side of said strongback support tool and projects away from said strongback support tool, said spacer extending completely around a space adjacent to said one side of said strongback support tool and comprising at least one throughhole; an expandable apparatus having a first portion attached to said one side of said strongback support tool and having a second portion that displaces away from said first portion of said expandable apparatus when said expandable apparatus is expanded, said expandable apparatus being disposed within said space when in a retracted state and when in an expanded state; a tooling pressure plate mounted to said second portion of said expandable apparatus; a heating blanket attached to said tooling pressure plate; a caul plate attached to said heating blanket; and a repair patch attached to said caul plate, said repair patch comprising fiber-reinforced plastic.
A method of generating a compound of Formula I wherein one of R 1, R 2, R 3, or R 4 is -X, and the remainder are -H, wherein X is a halogen selected from Cl, Br, or I; comprising: reacting a compound of Formula I with a halogenating reagent in the presence of a first solvent to form the compound of Formula I wherein one of R 5, R 6, R 7, or R 8 is and the remainder are -H; and each of R A and R B are independently -C 1-4 alkyl, -C 3-6 cycloalkyl; or R A and R B together with the oxygen atoms to which they are attached form a 5-6 membered ring optionally substituted with 1-4 of -C 1-3 alkyl, -C 1-3 alkoxycarbonyl, -C 1-3 alkylaminocarbonyl, or any combination thereof; or R A and R B together with the oxygen atoms to which they are attached form a 7-10 membered bicyclic or tricyclic ring optionally substituted with 1-4 of -C 1-3 alkyl, -C 1-3 alkoxycarbonyl, -C 1-3 alkylaminocarbonyl, or any combination thereof. reacting a compound of Formula I with a halogenating reagent in the presence of a first solvent to form the compound of Formula I wherein one of R 5, R 6, R 7, or R 8 is and the remainder are -H; and each of R A and R B are independently -C 1-4 alkyl, -C 3-6 cycloalkyl; or R A and R B together with the oxygen atoms to which they are attached form a 5-6 membered ring optionally substituted with 1-4 of -C 1-3 alkyl, -C 1-3 alkoxycarbonyl, -C 1-3 alkylaminocarbonyl, or any combination thereof; or R A and R B together with the oxygen atoms to which they are attached form a 7-10 membered bicyclic or tricyclic ring optionally substituted with 1-4 of -C 1-3 alkyl, -C 1-3 alkoxycarbonyl, -C 1-3 alkylaminocarbonyl, or any combination thereof.
A recombinant antibody molecule, or an α4-binding fragment thereof, comprising a variable heavy chain and a variable light chain, wherein: (a) the variable heavy chain comprises the variable heavy chain framework sequence from IGHV1-f and the CDRs from the VH chain of murine antibody HP1/2, wherein CDR1 comprises the sequence GFNIKDTYM, CDR2 comprises the sequence RIDPASGDTKYDPKFQV and CDR3 comprises the sequence GMWVSTGYALDF, and amino acid residues at framework positions 24 and 94 of the variable heavy chain according to the Kabat numbering scheme are substituted, wherein the substituted residue at framework position 24 is alanine and the substituted residue at framework position 94 is aspartic acid; (b) the variable light chain comprises the amino acid sequence according to SEQ ID NO: 11; and wherein the recombinant antibody molecule or the α4-binding fragment thereof binds VLA-4. (a) the variable heavy chain comprises the variable heavy chain framework sequence from IGHV1-f and the CDRs from the VH chain of murine antibody HP1/2, wherein CDR1 comprises the sequence GFNIKDTYM, CDR2 comprises the sequence RIDPASGDTKYDPKFQV and CDR3 comprises the sequence GMWVSTGYALDF, and amino acid residues at framework positions 24 and 94 of the variable heavy chain according to the Kabat numbering scheme are substituted, wherein the substituted residue at framework position 24 is alanine and the substituted residue at framework position 94 is aspartic acid; (b) the variable light chain comprises the amino acid sequence according to SEQ ID NO: 11;
An explosive structure, comprising: a structural tape comprising an undeployed state and a deployed state, the structural tape having a rolled, flat transverse profile in the undeployed state, and the structural tape having a linear, curved transverse profile in the deployed state; an explosive charge; a connector that couples the explosive charge along a length of the structural tape, wherein the explosive structure can be compacted into the undeployed state of the structural tape and extended into the deployed state of the structural tape. a structural tape comprising an undeployed state and a deployed state, the structural tape having a rolled, flat transverse profile in the undeployed state, and the structural tape having a linear, curved transverse profile in the deployed state; an explosive charge; a connector that couples the explosive charge along a length of the structural tape, wherein the explosive structure can be compacted into the undeployed state of the structural tape and extended into the deployed state of the structural tape.
An oral composition comprising: from 0.05 to 10% by weight propylene glycol; from 0.05 to 5% by weight tetrahydrohonokiol; and an orally acceptable carrier. from 0.05 to 10% by weight propylene glycol; from 0.05 to 5% by weight tetrahydrohonokiol; and an orally acceptable carrier.
A method of installing a production buoy at a subsea anchoring location, the method comprising the steps of:- floating said production buoy over a subsea anchoring location; hanging at least a tether (T1, T2, T3, T4) off the production buoy such that the or each tether extends from the production buoy towards the subsea anchoring location; and submerging the production buoy to a depth which allows connection of the or each tether (T1, T2, T3, T4) to the subsea anchoring location, characterised in that the step of securing the or each tether (T1, T2, T3, T4) to the subsea anchoring location comprises tilting the production buoy to one side in order to submerge said one side at a deeper depth to secure a pair of tethers at the one side of the production buoy to corresponding subsea anchoring foundations at said one side of the production buoy, and then tilting the production buoy to the other side in order to secure a pair of tethers at the other side of the production buoy to corresponding subsea anchoring foundations at that other side of the production buoy. floating said production buoy over a subsea anchoring location; hanging at least a tether (T1, T2, T3, T4) off the production buoy such that the or each tether extends from the production buoy towards the subsea anchoring location; and submerging the production buoy to a depth which allows connection of the or each tether (T1, T2, T3, T4) to the subsea anchoring location, characterised in that the step of securing the or each tether (T1, T2, T3, T4) to the subsea anchoring location comprises tilting the production buoy to one side in order to submerge said one side at a deeper depth to secure a pair of tethers at the one side of the production buoy to corresponding subsea anchoring foundations at said one side of the production buoy, and then tilting the production buoy to the other side in order to secure a pair of tethers at the other side of the production buoy to corresponding subsea anchoring foundations at that other side of the production buoy.
A method by a transmitting user equipment, UE, for controlling radio resources used for a data transmission, the method comprising: determining an allocated bandwidth; determining a transmission bandwidth for the data transmission; and transmitting towards a receiving UE a scheduling assignment that indicates a number or a set of subchannels within the allocated bandwidth; characterised in that wherein determining the allocated bandwidth is performed before determining the transmission bandwidth; and wherein determining the transmission bandwidth comprises determining the transmission bandwidth based on a supported Discrete Fourier Transform size. determining an allocated bandwidth; determining a transmission bandwidth for the data transmission; and transmitting towards a receiving UE a scheduling assignment that indicates a number or a set of subchannels within the allocated bandwidth; characterised in that wherein determining the allocated bandwidth is performed before determining the transmission bandwidth; and wherein determining the transmission bandwidth comprises determining the transmission bandwidth based on a supported Discrete Fourier Transform size.
A method for producing a microporous film comprising melting and kneading a composition composed of a polyolefin resin, inorganic particles and a plasticizer wherein said composition comprises 30 to 80% by mass plasticizer and forming a resulting mixture into a sheet shape, then biaxially stretching the sheet at a surface magnification of 20 times or more but less than 100 times, and extracting the plasticizer from the sheet, wherein the content of the inorganic particles in the microporous film is 20% by mass or more and 60% by mass or less, and the piercing strength of the microporous film is 3.0 N/20 μm or more.
A tubular compressive orthosis having an upper edge delimiting a first knitted compression zone and which, in the vicinity of the said upper edge, comprises at least one grip member facilitating the process of putting on the said orthosis, characterized in that the grip member is a second knitted grip zone (6,7) arranged underneath the upper edge and having a stitch density greater than the stitch density of the first compression zone.
Transporting means of a chair lift or a cableway system with a frame connected to a load-bearing bar which can be coupled to a conveying cable, a safety bar, a device for closing the safety bar, an energy store, a device for charging the energy store and a blocking device against charging the energy store, wherein the blocking device can be activated and deactivated and wherein opening the safety bar while the blocking device is in an active state, is prevented by the blocking means over at least part of the path from its fully open position to its fully closed position.
A robotic cleaning device including: a motive power system comprising left and right main drive wheel assemblies (112L, 112R) and associated independent electric motors (114L, 114R); and a navigational control system configured to monitor movement activity of the robotic cleaning device within a defined working area, wherein the monitored movement activity is defined in terms of a position history of the robotic cleaning device, the navigational control system comprising: a transmitting subsystem integrated in combination with the robotic device, characterised in that the transmitting subsystem comprises a sweeping laser that is integrated in combination with an upper portion of a housing infrastructure of the robotic cleaning device so that none of the structural features of the robotic cleaning device interfere with the operation thereof, wherein the laser is operative to functionally emulate an omnidirectional transmission source by sweeping through a 360° azimuth and emitting a plurality of directed beams that cover the defined working area substantially parallel to the surface of the defined working area. a motive power system comprising left and right main drive wheel assemblies (112L, 112R) and associated independent electric motors (114L, 114R); and a navigational control system configured to monitor movement activity of the robotic cleaning device within a defined working area, wherein the monitored movement activity is defined in terms of a position history of the robotic cleaning device, the navigational control system comprising: a transmitting subsystem integrated in combination with the robotic device, characterised in that the transmitting subsystem comprises a sweeping laser that is integrated in combination with an upper portion of a housing infrastructure of the robotic cleaning device so that none of the structural features of the robotic cleaning device interfere with the operation thereof, wherein the laser is operative to functionally emulate an omnidirectional transmission source by sweeping through a 360° azimuth and emitting a plurality of directed beams that cover the defined working area substantially parallel to the surface of the defined working area. a transmitting subsystem integrated in combination with the robotic device, characterised in that the transmitting subsystem comprises a sweeping laser that is integrated in combination with an upper portion of a housing infrastructure of the robotic cleaning device so that none of the structural features of the robotic cleaning device interfere with the operation thereof, wherein the laser is operative to functionally emulate an omnidirectional transmission source by sweeping through a 360° azimuth and emitting a plurality of directed beams that cover the defined working area substantially parallel to the surface of the defined working area.
A head rest device, wherein an accommodation space partitioned by a partitioning plate is provided inside a core material of a head rest main body, and a secondary battery is accommodated inside the accommodation space, and wherein preferably the accommodation space is placed at a lower part of the core material, characterized in that a) the accommodation space i) has a guiding port opening toward a lower side of the core material, or ii) includes a groove for causing a wall face of the accommodation space to break when an internal pressure increases, and b) a protective cushioning material is provided on a surface of the core material and on a front side of the accommodation space. a) the accommodation space i) has a guiding port opening toward a lower side of the core material, or ii) includes a groove for causing a wall face of the accommodation space to break when an internal pressure increases, and i) has a guiding port opening toward a lower side of the core material, or ii) includes a groove for causing a wall face of the accommodation space to break when an internal pressure increases, and b) a protective cushioning material is provided on a surface of the core material and on a front side of the accommodation space.
Modular high-current connector which has a first housing part and a second housing part connected thereto, wherein the high-current connector has a pin contact, wherein the pin contact is substantially cylindrical and has a connection region (A') and a contact region (K') for establishing electrical contact with a device socket or a mating connector, wherein the contact region (K') of the pin contact protrudes from the high-current connector on the plug-in side, characterized in that the high-current connector has an insulating body which is arranged at least in part in the first housing part and which protrudes from the first housing part on the plug-in side.
A display device comprising: a panel portion divided into an active region and a pad region; and a thin film encapsulation layer provided on the panel portion with covering the active region, wherein the active region is divided into a pixel portion (AAa) for displaying an image as a plurality of sub-pixels are arranged, each of the sub-pixels comprising at least an organic light emitting diode, OLED,, characterized in that it further comprises a capping layer on an upper surface of the OLED; an optical member between the thin film encapsulation layer and the OLED, wherein the optical member includes: a cholesteric liquid crystal, CLC, layer on the capping layer; a first quarter wave plate, QWP, layer on the CLC layer; a linear polarizer on the first QWP layer; and a second QWP layer on the linear polarizer, and wherein the capping layer is formed to have a different thickness at each of the sub-pixels. a panel portion divided into an active region and a pad region; and a thin film encapsulation layer provided on the panel portion with covering the active region, wherein the active region is divided into a pixel portion (AAa) for displaying an image as a plurality of sub-pixels are arranged, each of the sub-pixels comprising at least an organic light emitting diode, OLED,, characterized in that it further comprises a capping layer on an upper surface of the OLED; an optical member between the thin film encapsulation layer and the OLED, wherein the optical member includes: a cholesteric liquid crystal, CLC, layer on the capping layer; a first quarter wave plate, QWP, layer on the CLC layer; a linear polarizer on the first QWP layer; and a second QWP layer on the linear polarizer, and a cholesteric liquid crystal, CLC, layer on the capping layer; a first quarter wave plate, QWP, layer on the CLC layer; a linear polarizer on the first QWP layer; and a second QWP layer on the linear polarizer, and wherein the capping layer is formed to have a different thickness at each of the sub-pixels.
A production method for a damper comprising at least the following steps: a. producing a piston blank and b. inserting at least one recess into the piston blank by ultrashort pulse lasering, the recess defining a nozzle for the damping fluid for adjusting the flow resistance for the damping fluid between the first fluid chamber and the second fluid chamber when the nozzle piston is arranged in the damping chamber, c. installing the nozzle piston in a damping chamber of the damper, wherein the nozzle piston is guided along a longitudinal axis of the damping chamber and divides the damping chamber into a first fluid chamber and a second fluid chamber, d. testing the nozzle piston with respect to a force-velocity characteristic of the damper containing the nozzle piston, e. controlling the insertion of the at least one recess based on a result of the test of a nozzle piston. a. producing a piston blank and b. inserting at least one recess into the piston blank by ultrashort pulse lasering, the recess defining a nozzle for the damping fluid for adjusting the flow resistance for the damping fluid between the first fluid chamber and the second fluid chamber when the nozzle piston is arranged in the damping chamber, c. installing the nozzle piston in a damping chamber of the damper, wherein the nozzle piston is guided along a longitudinal axis of the damping chamber and divides the damping chamber into a first fluid chamber and a second fluid chamber, d. testing the nozzle piston with respect to a force-velocity characteristic of the damper containing the nozzle piston, e. controlling the insertion of the at least one recess based on a result of the test of a nozzle piston.
A method for detecting a photochemically active chemical species in a sample, comprising the steps of: a) illuminating the sample, according to an illumination sequence, with light (LB 1) of at least a first wavelength (λ 1) suitable to be absorbed by the chemical species triggering a first reaction (R 1) affecting at least one optical property of the chemical species and comprising at least one photochemically-activated step (PAS 1) and one thermally-activated step (TAS 1), wherein the illumination sequence is such that: • in at least a first time window (TW1, TW1') of the illumination sequence, a rate of the first reaction is limited by the photochemically-activated step; and • in at least a second time window (TW3, TW2') of the illumination sequence, the rate of the first reaction is limited by the thermally-activated step; b) measuring the time evolution of the optical property of the chemical species during the first and the second time windows; c) determining, from said measuring, at least a first and a second time constants representing the rate constants of the first reaction in the first and the second time windows, respectively; and d) using the determined time constants for detecting the chemical species. a) illuminating the sample, according to an illumination sequence, with light (LB 1) of at least a first wavelength (λ 1) suitable to be absorbed by the chemical species triggering a first reaction (R 1) affecting at least one optical property of the chemical species and comprising at least one photochemically-activated step (PAS 1) and one thermally-activated step (TAS 1), wherein the illumination sequence is such that: • in at least a first time window (TW1, TW1') of the illumination sequence, a rate of the first reaction is limited by the photochemically-activated step; and • in at least a second time window (TW3, TW2') of the illumination sequence, the rate of the first reaction is limited by the thermally-activated step; • in at least a first time window (TW1, TW1') of the illumination sequence, a rate of the first reaction is limited by the photochemically-activated step; and • in at least a second time window (TW3, TW2') of the illumination sequence, the rate of the first reaction is limited by the thermally-activated step; b) measuring the time evolution of the optical property of the chemical species during the first and the second time windows; c) determining, from said measuring, at least a first and a second time constants representing the rate constants of the first reaction in the first and the second time windows, respectively; and d) using the determined time constants for detecting the chemical species.