mhurhangee/ep-ind-claims huggingface dataset:
An insulator for holding an electrifiable wire, comprising: a base; a first connecting portion provided on a first end of the base; and a second connecting portion provided on a second end of the base, wherein the first connecting portion and the second connecting portion are movable between a first, open position and a second, closed position, characterized in that the first connecting portion and the second connecting portion are movable into the second position by applying pressure on at least one of the first connecting portion and the second connecting portion, whereby the first connecting portion and the second connecting portion snap together, and whereby as the connecting portions (6,8) are pressed, the base is flattened into a substantially straight, planar orientation to snap together the openings (10a, 10b) of the connecting portions (6,8). a base; a first connecting portion provided on a first end of the base; and a second connecting portion provided on a second end of the base, wherein the first connecting portion and the second connecting portion are movable between a first, open position and a second, closed position, characterized in that the first connecting portion and the second connecting portion are movable into the second position by applying pressure on at least one of the first connecting portion and the second connecting portion, whereby the first connecting portion and the second connecting portion snap together, and whereby as the connecting portions (6,8) are pressed, the base is flattened into a substantially straight, planar orientation to snap together the openings (10a, 10b) of the connecting portions (6,8). characterized in that the first connecting portion and the second connecting portion are movable into the second position by applying pressure on at least one of the first connecting portion and the second connecting portion, whereby the first connecting portion and the second connecting portion snap together, and whereby as the connecting portions (6,8) are pressed, the base is flattened into a substantially straight, planar orientation to snap together the openings (10a, 10b) of the connecting portions (6,8).
A method for deploying an airborne object utilizing a submersible transport and launch canister of the type that includes a pressure vessel in which the airborne object is stored and a cap which sealingly engages the pressure vessel, the method comprising the steps of: positioning an end portion of the pressure vessel above the surface level of a body of water; opening the cap, wherein the cap is a diver-actuated cap movable between an open position and a closed position in which the diver-actuated cap sealingly engages the end portion of the pressure vessel; and launching the airborne object from the pressure vessel while in the body of water. positioning an end portion of the pressure vessel above the surface level of a body of water; opening the cap, wherein the cap is a diver-actuated cap movable between an open position and a closed position in which the diver-actuated cap sealingly engages the end portion of the pressure vessel; and launching the airborne object from the pressure vessel while in the body of water.
A terminal apparatus comprising: one or more antenna modules; and a control unit that is configured to control a process, the process for changing a receivable direction of an antenna module of the one or more antenna modules used for measurement while fixing a shield state of the antenna module, wherein the shield state of the antenna module is a state produced by a shield, and a process for measuring downlink communication quality according to the change of the receivable direction of the antenna module used for the measurement; wherein the control unit is configured to cause an output unit to output second instruction information (71, 72) that indicates a direction in which a receivable direction of the antenna module used for data communication is to be set; wherein the second instruction information is superimposed on an image captured as an image of a view before the eyes of a user under an image viewing application. one or more antenna modules; and a control unit that is configured to control a process, the process for changing a receivable direction of an antenna module of the one or more antenna modules used for measurement while fixing a shield state of the antenna module, wherein the shield state of the antenna module is a state produced by a shield, and a process for measuring downlink communication quality according to the change of the receivable direction of the antenna module used for the measurement; wherein the control unit is configured to cause an output unit to output second instruction information (71, 72) that indicates a direction in which a receivable direction of the antenna module used for data communication is to be set; wherein the second instruction information is superimposed on an image captured as an image of a view before the eyes of a user under an image viewing application. cause an output unit to output second instruction information (71, 72) that indicates a direction in which a receivable direction of the antenna module used for data communication is to be set; wherein the second instruction information is superimposed on an image captured as an image of a view before the eyes of a user under an image viewing application.
A method at a base station of performing dynamic cell activation, said method comprising: transmitting an indication of two or more network operators on an announcement channel; receiving an access request on an access channel associated with the announcement channel, said access request sent from a wireless device in response to receiving the announcement channel; determining a targeted one of the network operators from the access request; activating a cell in a selected spectrum which is associated with the targeted network operator, for providing communication services to the wireless device via the cell; and characterized by admitting the wireless device into the cell, based on recognizing the wireless device as having initially accessed the base station via the access channel. transmitting an indication of two or more network operators on an announcement channel; receiving an access request on an access channel associated with the announcement channel, said access request sent from a wireless device in response to receiving the announcement channel; determining a targeted one of the network operators from the access request; activating a cell in a selected spectrum which is associated with the targeted network operator, for providing communication services to the wireless device via the cell; and characterized by admitting the wireless device into the cell, based on recognizing the wireless device as having initially accessed the base station via the access channel.
A method of marking a first fuel with a SERS-active taggant compound and subsequently identifying whether a sample of a second fuel is a sample of said marked fuel, the method comprising the step of adding to the first fuel a known concentration of a SERS-active taggant compound and the steps of:- a) adding to said sample of said second fuel a known quantity of an internal standard and mixing thoroughly, the internal standard comprising an isotopically-altered version of said SERS-active taggant compound; b) contacting said sample of said second fuel containing said internal standard with a SERS substrate; c) subjecting said sample of said second fuel containing said internal standard and said SERS substrate to Raman spectroscopy; and d) calculating the ratio of (i) the Raman spectroscopy detector response to the SERS-active taggant compound to (ii) the Raman spectroscopy detector response to the sample of said second fuel containing said internal standard, wherein the ratio calculated in step (d) is compared with a reference value representing the ratio of (iii) the Raman spectroscopy detector response to the SERS-active taggant compound measured in the first marked fuel to (iv) the Raman spectroscopy detector response to the first marked fuel containing the same quantity of the internal standard comprising the isotopically-altered version of the said SERS-active taggant compound to thereby identify whether the sample of fuel is a sample of the marked fuel. a) adding to said sample of said second fuel a known quantity of an internal standard and mixing thoroughly, the internal standard comprising an isotopically-altered version of said SERS-active taggant compound; b) contacting said sample of said second fuel containing said internal standard with a SERS substrate; c) subjecting said sample of said second fuel containing said internal standard and said SERS substrate to Raman spectroscopy; and d) calculating the ratio of (i) the Raman spectroscopy detector response to the SERS-active taggant compound to (ii) the Raman spectroscopy detector response to the sample of said second fuel containing said internal standard,
A method of sanitizing and/or disinfecting a surface using an on-site generated performic acid composition comprising: generating a performic acid composition on-site using an adjustable biocide generator system comprising at least two inlets (1, 1', 10), a length of pipe, a heating device, and an outlet for dosing a performic acid composition from said length of pipe; wherein said inlets (1, 1', 10) are in fluid connection with said length of pipe and supply reagents to produce said performic acid composition in said length of pipe, wherein each reagent enters the length of pipe via its individual inlet; wherein said reagents comprise a formic acid source and an oxidizing agent; wherein said length of pipe is in fluid connection with said outlet to dispense said performic acid composition; wherein heat is provided to the system through the use of the heating device in an amount sufficient to raise the temperature of the reagents to accelerate the reaction and to a temperature not exceeding the decomposition temperature of performic acid, or about 200°C, and wherein the heat is used as the sole catalyst; and applying said performic acid composition in an amount sufficient to sanitize and/or disinfect a surface in need thereof. generating a performic acid composition on-site using an adjustable biocide generator system comprising at least two inlets (1, 1', 10), a length of pipe, a heating device, and an outlet for dosing a performic acid composition from said length of pipe; wherein said inlets (1, 1', 10) are in fluid connection with said length of pipe and supply reagents to produce said performic acid composition in said length of pipe, wherein each reagent enters the length of pipe via its individual inlet; wherein said reagents comprise a formic acid source and an oxidizing agent; wherein said length of pipe is in fluid connection with said outlet to dispense said performic acid composition; wherein heat is provided to the system through the use of the heating device in an amount sufficient to raise the temperature of the reagents to accelerate the reaction and to a temperature not exceeding the decomposition temperature of performic acid, or about 200°C, and wherein the heat is used as the sole catalyst; and applying said performic acid composition in an amount sufficient to sanitize and/or disinfect a surface in need thereof.
A system including an interfered radar device and an interfering radar device, wherein the interfered radar device receives a radio wave emitted from the interfering radar device and reflected from a target, wherein each radar device comprises: generation means (15, 17) configured for generating selectively a plurality of transmission signals whose center frequencies are different from one another within an assigned frequency band; an antenna unit configured for transmitting a transmission signal to an atmosphere and receiving an echo signal generated by reflecting the transmission signal by an object; control means configured for controlling the generation means so as to vary the center frequencies for each emission of the transmission signals, wherein each of the radar devices further comprises removal means for removing transmission signals emitted from interfering stations of which the center frequencies are close to one another, or echo signals emitted from the interfering stations and reflected from objects, from reception signals, extracting only the signal with the desired frequency component; characterized in that the control means of the interfered radar device are configured to vary the center frequencies in order of f1, f2, f3 and f4 for each transmission and, further, the control means of the interfering radar device are configured to vary the center frequencies in order of f4, f3, f2 and f1 for each emission of the transmission signals so as not to overlap with each other in the different timing from that of the interfered station. generation means (15, 17) configured for generating selectively a plurality of transmission signals whose center frequencies are different from one another within an assigned frequency band; an antenna unit configured for transmitting a transmission signal to an atmosphere and receiving an echo signal generated by reflecting the transmission signal by an object; control means configured for controlling the generation means so as to vary the center frequencies for each emission of the transmission signals, wherein each of the radar devices further comprises removal means for removing transmission signals emitted from interfering stations of which the center frequencies are close to one another, or echo signals emitted from the interfering stations and reflected from objects, from reception signals, extracting only the signal with the desired frequency component; characterized in that the control means of the interfered radar device are configured to vary the center frequencies in order of f1, f2, f3 and f4 for each transmission and, further, the control means of the interfering radar device are configured to vary the center frequencies in order of f4, f3, f2 and f1 for each emission of the transmission signals so as not to overlap with each other in the different timing from that of the interfered station.
A grease composition comprising a base oil and a thickener, the base oil including a fluorine oil, an ester oil, and a polyalphaolefin oil, and the thickener including a fluorine-based thickener, a urea-based thickener, and a barium complex soap thickener, the grease composition containing, relative to a total amount of the grease composition, from 70 to 90 mass% of the fluorine oil, the ester oil, and the polyalphaolefin oil in total; from 9 to 18 mass% of the fluorine-based thickener; from 3.6 to 6.9 mass% of the urea-based thickener; and from 0.3 to 3.6 mass% of the barium complex soap thickener. from 70 to 90 mass% of the fluorine oil, the ester oil, and the polyalphaolefin oil in total; from 9 to 18 mass% of the fluorine-based thickener; from 3.6 to 6.9 mass% of the urea-based thickener; and from 0.3 to 3.6 mass% of the barium complex soap thickener.
A jet engine air intake, external fan cowl, core nozzle assembly, pylon or aerofoil body comprising a surface and a boundary layer energiser for preventing separation of a boundary layer flow over the surface, the boundary layer energiser comprising a plurality of passages, each passage terminating in a respective hole provided on the surface, characterised by the holes being arranged in a cluster on the surface, wherein the cluster of holes comprises three or more holes and the holes are arranged on the surface such that each hole is at the vertex of a first polygon and wherein the plurality of passages are angled with respect to one another at the surface such that, when in use, a helical vortex is formed by a fluid flowing through the plurality of passages.
A method of preparing a graft for eliminating a bone defect in a patient's jaw, comprising the steps of: (a) taking a three-dimensional image of the patient's jaw or a part of the jaw where the jaw-bone defect is located; (b) making a virtual model of the jaw or of the part of the jaw where the bone defect is located based on the three-dimensional image to obtain a virtual jaw model; (c) making a virtual model of the graft based on the virtual jaw model to obtain a virtual graft model, wherein the virtual graft model has an inner surface, which corresponds to the jaw arch of the virtual jaw model in the region of the bone defect and with which the virtual graft model is adjacent to the virtual jaw model in the region of the bone defect, and a longitudinal edge that faces the cemento-enamel junction and that is formed spaced by an offset to the level of the cemento-enamel junction; and (d) producing the graft based on the virtual graft model. (a) taking a three-dimensional image of the patient's jaw or a part of the jaw where the jaw-bone defect is located; (b) making a virtual model of the jaw or of the part of the jaw where the bone defect is located based on the three-dimensional image to obtain a virtual jaw model; (c) making a virtual model of the graft based on the virtual jaw model to obtain a virtual graft model, wherein the virtual graft model has an inner surface, which corresponds to the jaw arch of the virtual jaw model in the region of the bone defect and with which the virtual graft model is adjacent to the virtual jaw model in the region of the bone defect, and a longitudinal edge that faces the cemento-enamel junction and that is formed spaced by an offset to the level of the cemento-enamel junction; and (d) producing the graft based on the virtual graft model.
A multilayered resin molded body comprising a plurality of laminated resin composition layers comprising a thermoplastic resin and a filler comprising a carbon material having a graphene structure, the filler being dispersed in the thermoplastic resin, wherein an angle formed by a longitudinal direction of each of the fillers and a direction that is an average of longitudinal directions of all of the fillers is 6° or less.
A method of production of a conjugated diene rubber comprising a first step of polymerizing a monomer containing a conjugated diene compound in an inert solvent using a polymerization initiator so as to obtain a conjugated diene polymer chain having an active end, a second step of reacting siloxane with the conjugated diene polymer chain having an active end, and a third step of reacting a compound represented by the following general formula with the conjugated diene polymer chain with which siloxane was reacted obtained in the second step: wherein, in the general formula, X 1 represents a functional group selected from a hydrocarbyloxy group, a halogen group, and a hydroxyl group, R 1 represents a substituted or unsubstituted hydrocarbon group, R 2 and R 3 respectively independently represent a substituted or unsubstituted hydrocarbon group, R 2 and R 3 may bond with each other to form a ring structure together with the nitrogen atom to which they are bound, when forming the ring structure they may form a ring structure together with a hetero atom other than the nitrogen atom to which they are bound in addition to the nitrogen atom to which they are bound, "r" is an integer of 0 to 2.
A row unit for a corn header for an agricultural harvester comprising: a frame; a first row unit arm mounted to the frame, the first row unit arm including a first elongated deck plate; and a second row unit arm mounted to the frame, wherein the second row unit arm includes a second elongated deck plate spaced from the first deck plate, the first deck plate and the second deck plate each having a medial side (28a, 32a) defining a gap therebetween, characterized in that each of the first and second deck plates (28, 32) includes a plurality of structures configured to inhibit a flow of grain off the deck plate, wherein each of the plurality of structures is configured as a corrugation, a rib or a recess, positioned spaced from the medial side (28a, 32a) of the respective deck plate (28, 32). a frame; a first row unit arm mounted to the frame, the first row unit arm including a first elongated deck plate; and a second row unit arm mounted to the frame, wherein the second row unit arm includes a second elongated deck plate spaced from the first deck plate, the first deck plate and the second deck plate each having a medial side (28a, 32a) defining a gap therebetween, characterized in that each of the first and second deck plates (28, 32) includes a plurality of structures configured to inhibit a flow of grain off the deck plate, wherein each of the plurality of structures is configured as a corrugation, a rib or a recess, positioned spaced from the medial side (28a, 32a) of the respective deck plate (28, 32).
A method for dehydrocoupling silanes and amines; said method comprising contacting: (a) an aliphatic amine; (b) a silane; and (c) a catalyst which is ZnX 2, wherein X is alkyl, chloride, bromide, iodide, trifluoromethanesulfonate, bis(trifluoromethane)sulfonamide, tosylate, methanesulfonate or O 3 S(CF 2) x CF 3 wherein x is an integer from 1 to 10.
A device for three-dimensional printing by metal deposition comprising an enclosure under an inert atmosphere in operation and a conduit for guiding a metal wire opening into the enclosure under an inert atmosphere, characterized in that the device comprises means for injecting an inert gas into the guide conduit said injection means comprising an inert gas supply conduit, a downstream end of which opens into the conduit and an upstream end of which is connected in operation to inert gas supply means, the guide conduit is substantially straight, the downstream end of the inert gas supply conduit extending in a direction forming an angle strictly less than 90° with a direction of elongation of the guide conduit at the outlet of the inert gas supply conduit into the guide conduit, the angle being comprised between a first rectilinear portion of the guide conduit and a second rectilinear portion of the inert gas supply conduit, the first rectilinear portion extending from the distal end of the guide conduit to the outlet of the inert gas supply conduit into the guide conduit and the second rectilinear portion joining the outlet of the gas supply conduit into the guide conduit.
A modified BoNT/A Clostridial toxin comprising a Clostridial toxin substrate cleavage site located within the di-chain loop region, wherein the Clostridial toxin substrate cleavage site is a Botulinum toxin substrate cleavage site or a Tetanus toxin substrate cleavage site, and wherein the Botulinum toxin substrate cleavage site is a BoNT/B substrate cleavage site, a BoNT/C1 substrate cleavage site, a BoNT/D substrate cleavage site, a BoNT/E substrate cleavage site, a BoNT/F substrate cleavage site or a BoNT/G substrate cleavage site.