mhurhangee/ep-ind-claims huggingface dataset:
Bluetooth low energy proximity lock system, comprising: a host electronic device comprising a computer processor; a peripheral electronic device, comprising a keyboard, interfacing with the host electronic device and comprising: a controller; and a first Bluetooth low energy component; and a user device comprising a second Bluetooth low energy component; wherein the controller is configured to: using the first Bluetooth low energy component, identify the second Bluetooth low energy component; determine (220,225) a radio signal strength between the first Bluetooth low energy component and the second Bluetooth low energy component; generate a keyboard command that renders the host electronic device temporarily inoperable in response to the radio signal strength being below a predetermined threshold, wherein the keyboard command causes the host electronic device to lock the host electronic device; and send one or more keyboard commands to the host electronic device to unlock the host electronic device, if the host electronic device is locked and the user device is sensed to be within a certain distance. a host electronic device comprising a computer processor; a peripheral electronic device, comprising a keyboard, interfacing with the host electronic device and comprising: a controller; and a first Bluetooth low energy component; and a controller; and a first Bluetooth low energy component; and a user device comprising a second Bluetooth low energy component; wherein the controller is configured to: using the first Bluetooth low energy component, identify the second Bluetooth low energy component; determine (220,225) a radio signal strength between the first Bluetooth low energy component and the second Bluetooth low energy component; generate a keyboard command that renders the host electronic device temporarily inoperable in response to the radio signal strength being below a predetermined threshold, wherein the keyboard command causes the host electronic device to lock the host electronic device; and send one or more keyboard commands to the host electronic device to unlock the host electronic device, if the host electronic device is locked and the user device is sensed to be within a certain distance. using the first Bluetooth low energy component, identify the second Bluetooth low energy component; determine (220,225) a radio signal strength between the first Bluetooth low energy component and the second Bluetooth low energy component; generate a keyboard command that renders the host electronic device temporarily inoperable in response to the radio signal strength being below a predetermined threshold, wherein the keyboard command causes the host electronic device to lock the host electronic device; and send one or more keyboard commands to the host electronic device to unlock the host electronic device, if the host electronic device is locked and the user device is sensed to be within a certain distance.
An aerosol-generating device using induction heating, comprising: a plurality of coils (830, 850, 950, 970, 1050, 1070) having different numbers of windings and configured to generate alternating magnetic fields based on an alternating current; a susceptor configured to generate an aerosol by heating adjacent aerosol-generating substrates using heat generated through the alternating magnetic fields generated from the plurality of coils (830, 850, 950, 970, 1050, 1070), wherein the susceptor includes a susceptor heating unit that contains a susceptor material, and a remaining portion that does not contain a susceptor material; and a controller configured to control the alternating current to be supplied to the plurality of coils (830, 850, 950, 970, 1050, 1070), such that a first portion (930, 1030, 1130) and a second portion (910, 1010, 1110) of the susceptor heating unit of the susceptor are heated differentially by the alternating current. a plurality of coils (830, 850, 950, 970, 1050, 1070) having different numbers of windings and configured to generate alternating magnetic fields based on an alternating current; a susceptor configured to generate an aerosol by heating adjacent aerosol-generating substrates using heat generated through the alternating magnetic fields generated from the plurality of coils (830, 850, 950, 970, 1050, 1070), wherein the susceptor includes a susceptor heating unit that contains a susceptor material, and a remaining portion that does not contain a susceptor material; and a controller configured to control the alternating current to be supplied to the plurality of coils (830, 850, 950, 970, 1050, 1070), such that a first portion (930, 1030, 1130) and a second portion (910, 1010, 1110) of the susceptor heating unit of the susceptor are heated differentially by the alternating current.
Device for picking up, shaping, and placing a thin glass pane, comprising a frame with an upper side and a lower side, which is suitable to be directed onto a glass pane with a thickness of less than 1 mm and which is provided with a plurality of picking up pins that are arranged substantially parallel to one another and whose end directed onto the glass pane is equipped with a suction cup, wherein the picking up pins are movable along their direction of extension independent of one another in order to adapt the arrangement of the suction cups to an intended shape of the glass pane.
A carrageenan derivative formed as a hydroxy group of a galactose or 3,6-anhydrogalactose moiety of carrageenan having a repeat unit represented by Chemical Formula 1 is oxidized to an aldehyde group through periodate oxidation, and the aldehyde group is substituted with a compound represented by Chemical Formula 2 or Chemical Formula 3 and then reduced: wherein each of R 1 to R 5, which are identical to or different from each other, is any one selected from a group consisting of -H, -OH, -CH 3, -CH 2 OH, -COOH or -OSO 3 -, n is an integer from 1 to 10,000, and o is an integer from 1 to 10. a hydroxy group of a galactose or 3,6-anhydrogalactose moiety of carrageenan having a repeat unit represented by Chemical Formula 1 is oxidized to an aldehyde group through periodate oxidation, and the aldehyde group is substituted with a compound represented by Chemical Formula 2 or Chemical Formula 3 and then reduced: wherein each of R 1 to R 5, which are identical to or different from each other, is any one selected from a group consisting of -H, -OH, -CH 3, -CH 2 OH, -COOH or -OSO 3 -, n is an integer from 1 to 10,000, and o is an integer from 1 to 10.
A feed additive composition comprising at least the direct fed microbial strains Bacillus AGTP BS3BP5, Bacillus AGTP BS918 and Bacillus AGTP BS1013, a xylanase, and a β-glucanase,wherein the xylanase and the β-glucanase are each exogenous to the DFM strains.
Protection method for a rail network, which is divided by track elements (S1, S2,..., Sp) into track sections (G1, G2,..., Gq) and on which vehicles (Z1, Z2,..., Zr) can travel, in which different types of headway points (ZFT.I, ZFT.II) are specified, characterised in that - the vehicles (Z1, Z2,..., Zr) provide different braking curves (BK A.I, BK A.II) of the same type of braking curve, - wherein each of the different braking curves (BK A.I, BK A.II) of the same type of braking curve for the respective vehicle (Zm, where m = 1 to r) is in each case assigned to one of the different types of headway points (ZFT.I, ZFT.II). - the vehicles (Z1, Z2,..., Zr) provide different braking curves (BK A.I, BK A.II) of the same type of braking curve, - wherein each of the different braking curves (BK A.I, BK A.II) of the same type of braking curve for the respective vehicle (Zm, where m = 1 to r) is in each case assigned to one of the different types of headway points (ZFT.I, ZFT.II).
Piston for a two-stroke engine which operates with stratified scavenging, the piston having a piston crown and a piston skirt, the centre axis of the piston skirt having a longitudinal centre axis of the piston, the piston having two piston pin bosses, the centre axis of which forms a transverse axis of the piston, the piston having a centre plane which includes the longitudinal centre axis of the piston and which runs perpendicularly with respect to the transverse axis of the piston, the piston having two piston recesses which are arranged on opposite sides of the centre plane, the piston skirt having an edge which faces away from the piston crown, and the edge having a clearance in the circumferential region between the piston recesses, at which clearance the piston skirt has a decreased height (i), the clearance being arranged on an inlet side of the piston, and the piston having an opposite outlet side, characterized in that the edge at the clearance has a chamfer on the radially outer side of the piston, in that the edge of the piston also has a chamfer on the outlet side, and in that the circumferential angle (β), over which the chamfer extends on the outlet side, is greater than the circumferential angle (α), over which the chamfer extends on the inlet side.
A carton for packaging one or more articles, the carton comprising a plurality of primary panels at least partially extending around an interior of the carton, the plurality of primary panels comprising a top panel (14, 1014) and a pair of side panels (12a/12b, 16a/16b, 1012, 1016) hingedly connected to opposed side edges of the top panel (14, 1014) respectively, wherein the carton further comprises an end closure structure (20a/24a/30a, 20b/24b/30b; 1020a/1024a/1030a, 1020b/1024b/1030b) which partially closes an end of the carton, the end closure structure (20a/24a/30a, 20b/24b/30b; 1020a/1024a/1030a, 1020b/1024b/1030b) comprises a top end closure panel (24a, 24b; 1024a, 1024b) hingedly connected to an end edge of the top panel (14; 1014) and at least one anchor panel (20a, 30a, 20b, 30b; 1020a, 1030a, 1020b, 1030b) hingedly connected to an end edge of at least one of the pair of side panels (12a/12b, 16a/16b; 1012, 1016), said at least one anchor panel (20a, 30a, 20b, 30b; 1020a, 1030a, 1020b, 1030b) being coupled to the top end closure panel (24a, 24b; 1024a, 1024b) by a gusset panel (22a, 22b, 22c, 22d, 1022a 1022b, 1022c, 1022d), characterised in that the top end closure panel (24a, 24b; 1024a, 1024b) comprises at least one first article engaging tab (TB1, TB2) for extending into a gap between two adjacent articles adjacent to the top end closure panel (24a, 24b; 1024a, 1024b).
A method for foaming and moulding an insulation layer into hollow walls of a refrigeration container, in which a liquid polyurethane mixture is injected into the hollow walls of the refrigeration container, leaving the polyurethane mixture to expand in a vacuum degree condition, comprising the steps of: enclosing the refrigeration container into a foaming cell comprising a bottom table, side shore panels (16, 17, 18, 19) conforming to outer surfaces of container walls and a closure lid provided with a shore plug conforming to inner surfaces of the container walls, said bottom table and side shore panels (16, 17, 18, 19) being movably supported between an open and a closed condition of the foaming cell; providing an air-impervious surface on the side shore panels (16, 17, 18, 19), the bottom table and the closure lid facing inside the foaming cell; providing sealing gaskets (40, 43, 44, 45) between opposite contact surfaces of the bottom table, the side shore panels (16,17,18,19) and the closure lid; sealingly enclosing the refrigeration container into the foaming cell; connecting the closed foaming cell to a vacuum source; generating a vacuum degree in the foaming cell and in the hollow walls of the refrigeration container; injecting a metered quantity of a foamable polyurethane mixture into the hollow walls of the refrigeration container; and causing foaming under vacuum degree condition of the injected polyurethane mixture up to a complete filling of the hollow walls of the refrigeration container by the polyurethane foam. enclosing the refrigeration container into a foaming cell comprising a bottom table, side shore panels (16, 17, 18, 19) conforming to outer surfaces of container walls and a closure lid provided with a shore plug conforming to inner surfaces of the container walls, said bottom table and side shore panels (16, 17, 18, 19) being movably supported between an open and a closed condition of the foaming cell; providing an air-impervious surface on the side shore panels (16, 17, 18, 19), the bottom table and the closure lid facing inside the foaming cell; providing sealing gaskets (40, 43, 44, 45) between opposite contact surfaces of the bottom table, the side shore panels (16,17,18,19) and the closure lid; sealingly enclosing the refrigeration container into the foaming cell; connecting the closed foaming cell to a vacuum source; generating a vacuum degree in the foaming cell and in the hollow walls of the refrigeration container; injecting a metered quantity of a foamable polyurethane mixture into the hollow walls of the refrigeration container; and causing foaming under vacuum degree condition of the injected polyurethane mixture up to a complete filling of the hollow walls of the refrigeration container by the polyurethane foam.
A jacket heater having a heating element built therein, the jacket heater comprising: the heating element having a watt density of 0.15 W/cm 2 or more, a metal foil disposed adjacently to the heating element, and a surrounding body which surrounds the heating element and the metal foil; wherein the surrounding body comprises an inner-layer material and an outer-layer material, characterised in that the heating element comprises a support that includes a cloth formed of inorganic fibers and an electric heating wire attached to the support; wherein the metal foil is interposed between the inner-layer material and the heating element; wherein a thermal insulator is interposed between the heating element and the outer-layer material; and wherein the inner-layer material, the metal foil, the support, the electric heating wire, the thermal insulator, and the outer-layer material are sequentially stacked from a first side to a second side of the jacket heater. the heating element having a watt density of 0.15 W/cm 2 or more, a metal foil disposed adjacently to the heating element, and a surrounding body which surrounds the heating element and the metal foil; wherein the surrounding body comprises an inner-layer material and an outer-layer material,
A glass roving cloth comprising: a warp yarn; and a weft yarn, the warp yarns being glass rovings each comprising glass filaments, each having a filament diameter Dt in a range of 9.5 to 30.0 μm, bundled in a number bundled Ft in a range of 400 to 8000, the weft yarns being glass rovings each comprising glass filaments, each having a filament diameter Dy in a range of 9.5 to 30.0 μm, bundled in a number bundled Fy in a range of 400 to 8000, wherein a weaving density of the warp yarns Wt and a weaving density of the weft yarns Wy are each in a range of 2.0 to 14.0 yarns/25 mm, a warp yarn average yarn width Bt and a weft yarn average yarn width By are each in a range of 500 to 8000 μm, a warp yarn widening rate Et (100 × Bb(Dt × Ft)) and a weft yarn widening rate Ey (100 × By/(Dy × Fy)) are each in the range of 3.0 to 30.0%, a glass occupancy in the warp yarn direction Mt (100 × Bt/(25000 (μm)/Wt)) is in a range of 90.0 to 106.0%, and characterised in that a glass occupancy in the weft yarn direction My (100 × By/(25000 (μm)/Wy)) is in a range of 75.0 to 99.0%. a warp yarn; and a weft yarn, the warp yarns being glass rovings each comprising glass filaments, each having a filament diameter Dt in a range of 9.5 to 30.0 μm, bundled in a number bundled Ft in a range of 400 to 8000, the weft yarns being glass rovings each comprising glass filaments, each having a filament diameter Dy in a range of 9.5 to 30.0 μm, bundled in a number bundled Fy in a range of 400 to 8000, wherein a weaving density of the warp yarns Wt and a weaving density of the weft yarns Wy are each in a range of 2.0 to 14.0 yarns/25 mm, a warp yarn average yarn width Bt and a weft yarn average yarn width By are each in a range of 500 to 8000 μm, a warp yarn widening rate Et (100 × Bb(Dt × Ft)) and a weft yarn widening rate Ey (100 × By/(Dy × Fy)) are each in the range of 3.0 to 30.0%, a glass occupancy in the warp yarn direction Mt (100 × Bt/(25000 (μm)/Wt)) is in a range of 90.0 to 106.0%, and characterised in that a glass occupancy in the weft yarn direction My (100 × By/(25000 (μm)/Wy)) is in a range of 75.0 to 99.0%.
A manufacturing method for a composite material provided with a reinforcement and resin infused into the reinforcement, comprising: applying an adhesive to the sheet-shaped reinforcement having first and second regions (511, 512) such that a content density of the adhesive of the second region is lower than that of the first region; and preforming the reinforcement in a three-dimensional shape such that a core material is covered by the reinforcement, and in the preforming, the second region is placed in a portion of the core material having a curvature larger than that of a portion where the first region of the reinforcement is placed. applying an adhesive to the sheet-shaped reinforcement having first and second regions (511, 512) such that a content density of the adhesive of the second region is lower than that of the first region; and preforming the reinforcement in a three-dimensional shape such that a core material is covered by the reinforcement, and in the preforming, the second region is placed in a portion of the core material having a curvature larger than that of a portion where the first region of the reinforcement is placed.
A nonaqueous electrolyte secondary battery comprising: a positive electrode containing one or more positive electrode active materials; a negative electrode; and a nonaqueous electrolyte containing a fluorine compound, wherein: the positive electrode active materials include a complex oxide A containing Li, Ni, and W and a complex oxide B containing Li, Ni, and W as an optional element; W content in the complex oxide A is 5 mol% or more; W content in the complex oxide B is 0.5 mol% or less; and a mass ratio of the complex oxide A is 0.002% or more and 0.1% or less relative to the total of the complex oxide A and the complex oxide B. the positive electrode active materials include a complex oxide A containing Li, Ni, and W and a complex oxide B containing Li, Ni, and W as an optional element; W content in the complex oxide A is 5 mol% or more; W content in the complex oxide B is 0.5 mol% or less; and a mass ratio of the complex oxide A is 0.002% or more and 0.1% or less relative to the total of the complex oxide A and the complex oxide B.
Process for manufacturing a steel Yankee cylinder, comprising the following steps: a.) Cutting and curling the individual shell plates at a specific manufacturing location; b.) Welding the shell plates together to form two or more cylinder sections (8, 9, 10) at the manufacturing location; c.) Transport of the individual cylinder sections (8, 9, 10) from the manufacturing location to an assembly location; d.) Welding the individual cylinder sections (8, 9, 10) together at the assembly location to form a complete cylinder shell of the Yankee cylinder. a.) Cutting and curling the individual shell plates at a specific manufacturing location; b.) Welding the shell plates together to form two or more cylinder sections (8, 9, 10) at the manufacturing location; c.) Transport of the individual cylinder sections (8, 9, 10) from the manufacturing location to an assembly location; d.) Welding the individual cylinder sections (8, 9, 10) together at the assembly location to form a complete cylinder shell of the Yankee cylinder.
A vehicle controller comprising: friction brake orientation control means for calculating a brake orientation control amount for a friction brake that will change the orientation of a vehicle body to a target orientation, and outputting the amount to a friction brake; damping force control means for calculating a shock absorber orientation control amount for a variable-damping-force shock absorber that will change the orientation of the vehicle body to the target orientation, and outputting the shock absorber orientation control amount to the variable-damping-force shock absorber; state quantity detection means for detecting a state quantity indicating vehicle body orientation; and orientation control means for controlling vehicle body orientation using the damping force control means when the absolute value of the amplitude of the detected state quantity is less than a predetermined value, and controlling vehicle body orientation using the friction brake orientation control means instead of the damping force control means when the absolute value of the amplitude is equal to or greater than the predetermined value. friction brake orientation control means for calculating a brake orientation control amount for a friction brake that will change the orientation of a vehicle body to a target orientation, and outputting the amount to a friction brake; damping force control means for calculating a shock absorber orientation control amount for a variable-damping-force shock absorber that will change the orientation of the vehicle body to the target orientation, and outputting the shock absorber orientation control amount to the variable-damping-force shock absorber; state quantity detection means for detecting a state quantity indicating vehicle body orientation; and orientation control means for controlling vehicle body orientation using the damping force control means when the absolute value of the amplitude of the detected state quantity is less than a predetermined value, and controlling vehicle body orientation using the friction brake orientation control means instead of the damping force control means when the absolute value of the amplitude is equal to or greater than the predetermined value.
A transmitting apparatus, comprising: means for resetting a Deleted Null Packets, DNP, counter before transmitting a baseband packet, wherein the DNP counter is adapted to count a number of deleted null Transport Stream, TS, packets disposed prior to consecutive valid TS packets in the baseband packet; a packet generator configured to generate the baseband packet comprising a header and a payload; a frame generator configured to generate a frame comprising the baseband packet; and a transmitter configured to transmit the frame, wherein the deleted null TS packet and the consecutive valid TS packets are included in an input TS, wherein the consecutive valid TS packets are encapsulated into the payload of the packet, and wherein the header comprises information about a number of the consecutive valid TS packets within the baseband packet and information about the number of the deleted null TS packets. means for resetting a Deleted Null Packets, DNP, counter before transmitting a baseband packet, wherein the DNP counter is adapted to count a number of deleted null Transport Stream, TS, packets disposed prior to consecutive valid TS packets in the baseband packet; a packet generator configured to generate the baseband packet comprising a header and a payload; a frame generator configured to generate a frame comprising the baseband packet; and a transmitter configured to transmit the frame, wherein the deleted null TS packet and the consecutive valid TS packets are included in an input TS, wherein the consecutive valid TS packets are encapsulated into the payload of the packet, and wherein the header comprises information about a number of the consecutive valid TS packets within the baseband packet and information about the number of the deleted null TS packets.