mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising electron-donating polymer and electron-withdrawing polymer, wherein the electron-donating polymer has a structure represented by the formula: *-O-X 1 -O-Y 1 -* wherein X 1 is a divalent group containing a naphthalene ring, Y 1 is a divalent group containing a C 3-10 alkylene group optionally having a substituent or a divalent group containing a benzene ring optionally having a substituent, and * shows a bonding position, and the electron-withdrawing polymer has a structure represented by the formula: wherein X 2 is a tetravalent group containing a naphthalene ring, when Y 1 is a divalent group containing a C 3-10 alkylene group optionally having a substituent, then Y 2 is a divalent group containing a benzene ring optionally having a substituent, when Y 1 is a divalent group containing a benzene ring optionally having a substituent, then Y 2 is a divalent group containing a C 3-10 alkylene group optionally having a substituent, and * shows a bonding position, and wherein at least one of Y 1 and Y 2 has a sulfo group. wherein X 1 is a divalent group containing a naphthalene ring, Y 1 is a divalent group containing a C 3-10 alkylene group optionally having a substituent or a divalent group containing a benzene ring optionally having a substituent, and * shows a bonding position, and wherein X 2 is a tetravalent group containing a naphthalene ring, when Y 1 is a divalent group containing a C 3-10 alkylene group optionally having a substituent, then Y 2 is a divalent group containing a benzene ring optionally having a substituent, when Y 1 is a divalent group containing a benzene ring optionally having a substituent, then Y 2 is a divalent group containing a C 3-10 alkylene group optionally having a substituent, and * shows a bonding position, and wherein at least one of Y 1 and Y 2 has a sulfo group.
A lighting device comprising a connector arranged for being installed in a lighting fixture comprising a ballast for powering said lighting device, said lighting device comprising: - a light emitting diode module; - a driver circuit, operatively connected between said connector and said light emitting diode module, arranged for controlling supply of power to said light emitting diode module; - a ballast type detection circuit, operatively connected to said connector, arranged for determining ballast type detection data from power signals supplied by said ballast to said connector, and - a communication circuit, operatively connected to said ballast type detection circuit, arranged for exchanging said ballast type detection data; wherein said ballast type detection circuit is arranged for establishing a type of ballast, characterized in that said ballast type detection circuit and said communication circuit are arranged for exchanging auxiliary data in support of said ballast type detection data. - a light emitting diode module; - a driver circuit, operatively connected between said connector and said light emitting diode module, arranged for controlling supply of power to said light emitting diode module; - a ballast type detection circuit, operatively connected to said connector, arranged for determining ballast type detection data from power signals supplied by said ballast to said connector, and - a communication circuit, operatively connected to said ballast type detection circuit, arranged for exchanging said ballast type detection data;
A textile sleeve for routing and protecting an elongate member, comprising: a wall having opposite edges (116, 117) extending lengthwise between opposite ends (119, 121), said opposite edges (116, 117) being configured to be wrapped about a central longitudinal axis to bound the elongate member within an enclosed cavity, said wall being formed of interlaced heat-resistant yarn and having at least one hook-type fastener member along one of said opposite edges and at least one loop-type fastener member along the other of said opposite edges, said at least one hook-type fastener member and said at least one loop-type fastener member being configured to attach with one another to maintain said opposite edges (116, 117) of said wall in overlapping relation with one another, said at least one hook-type fastener member and said at least one loop-type fastener member being formed of aramid, characterized in that said hook-type fastener is wrapped about an outer one of said opposite edges and said loop-type fastener is wrapped about an inner one of said opposite edges, wherein said outer edge is configured to be outward of the inner edge when the opposite edges (116, 117) of said wall are in overlapping relation with one another; and in that said loop-type fastener has a flap portion detached from said wall, said flap portion being wrappable about said outer edge into fixed relation with said hook-type fastener such that said hook-type fastener is sandwiched between said loop-type fastener. a wall having opposite edges (116, 117) extending lengthwise between opposite ends (119, 121), said opposite edges (116, 117) being configured to be wrapped about a central longitudinal axis to bound the elongate member within an enclosed cavity, said wall being formed of interlaced heat-resistant yarn and having at least one hook-type fastener member along one of said opposite edges and at least one loop-type fastener member along the other of said opposite edges, said at least one hook-type fastener member and said at least one loop-type fastener member being configured to attach with one another to maintain said opposite edges (116, 117) of said wall in overlapping relation with one another, said at least one hook-type fastener member and said at least one loop-type fastener member being formed of aramid, characterized in that said hook-type fastener is wrapped about an outer one of said opposite edges and said loop-type fastener is wrapped about an inner one of said opposite edges, wherein said outer edge is configured to be outward of the inner edge when the opposite edges (116, 117) of said wall are in overlapping relation with one another; and in that said loop-type fastener has a flap portion detached from said wall, said flap portion being wrappable about said outer edge into fixed relation with said hook-type fastener such that said hook-type fastener is sandwiched between said loop-type fastener.
Computer implemented method for determining an initial ego-pose for initialization of self-localization, the method comprising the following steps carried out by computer hardware components: - providing a plurality of particles in a map; - grouping the particles in a plurality of clusters with a binary grid, each cluster comprising a respective subset of the plurality of particles; - during particle filtering, injecting particles based on the plurality of clusters; - determining an initial ego-pose based on the particle filtering; and - determining a mean value and a variance of the respective locations of the respective subject of particles for each of the clusters; characterised in that injecting particles based on the plurality of clusters comprises injecting the particles based on the respective mean value and the respective variance; wherein the initial ego-position is determined based on entropy based monitoring based on the binary grid; and wherein the particles are injected if an entropy change rate exceeds a pre-determined threshold. the method comprising the following steps carried out by computer hardware components: - providing a plurality of particles in a map; - grouping the particles in a plurality of clusters with a binary grid, each cluster comprising a respective subset of the plurality of particles; - during particle filtering, injecting particles based on the plurality of clusters; - determining an initial ego-pose based on the particle filtering; and - determining a mean value and a variance of the respective locations of the respective subject of particles for each of the clusters; - providing a plurality of particles in a map; - grouping the particles in a plurality of clusters with a binary grid, each cluster comprising a respective subset of the plurality of particles; - during particle filtering, injecting particles based on the plurality of clusters; - determining an initial ego-pose based on the particle filtering; and - determining a mean value and a variance of the respective locations of the respective subject of particles for each of the clusters; characterised in that injecting particles based on the plurality of clusters comprises injecting the particles based on the respective mean value and the respective variance; wherein the initial ego-position is determined based on entropy based monitoring based on the binary grid; and wherein the particles are injected if an entropy change rate exceeds a pre-determined threshold.
Light assembly having a heatsink, a carrier plate for the reception of at least one illuminant and a reflector into which light which can be generated by the illuminant can be radiated, wherein the carrier plate and the reflector are arranged on top of each other on the heatsink characterized in that the carrier plate is arranged rotatably around an adjusting axis and between the heatsink and the reflector, the carrier plate having an integrally molded adjusting element by means of which the carrier plate can initiate a rotating movement around the adjusting axis to adjust the position of the illuminant relative to the reflector.
A method for preparing an oral tobacco product having a net-structured, gel coating, the method comprising: (a) molding a portion of tobacco material to form a pre-portioned piece of tobacco material, said tobacco material comprising moist smokeless tobacco; (b) contacting the pre-portioned piece of tobacco material with a gel-coating solution to form a gel-coating comprising at least one polymer on an outer surface of the pre-portioned piece of tobacco material to form a gel-coated oral tobacco product, said gel-coating comprising an inner surface disposed around the pre-portioned piece of tobacco material and an outer surface; and (c) forming one or more of perforations, uncoated areas and holes that expose the tobacco material through a thickness of the gel-coating from said inner surface to said outer surface to form a net-structured gel-coated oral tobacco product, wherein a laser is used to form the one or more of perforations, uncoated areas and holes or wherein the gel-coating solution further comprises at least one base and wherein the gel-coating is contacted with at least one acid to form the one or more of perforations, uncoated areas and holes or wherein the perforations, uncoated areas and holes are formed by placing a mesh sieve on or around the pre-portioned tobacco material followed by application of the gel-coating solution to the pre-portioned tobacco material and subsequent removal of the mesh sieve from on or around the pre-portioned tobacco material or wherein the perforations, uncoated areas and holes are formed by adding one or more of a yeast, a low boiling point liquid, a volatile liquid and a gas to the gel-coating solution. (a) molding a portion of tobacco material to form a pre-portioned piece of tobacco material, said tobacco material comprising moist smokeless tobacco; (b) contacting the pre-portioned piece of tobacco material with a gel-coating solution to form a gel-coating comprising at least one polymer on an outer surface of the pre-portioned piece of tobacco material to form a gel-coated oral tobacco product, said gel-coating comprising an inner surface disposed around the pre-portioned piece of tobacco material and an outer surface; and (c) forming one or more of perforations, uncoated areas and holes that expose the tobacco material through a thickness of the gel-coating from said inner surface to said outer surface to form a net-structured gel-coated oral tobacco product,
Arrangement comprising a - converter arrangement comprising at least one input AC voltage connection (E20a, E20b, E20c) at which an AC current can be fed in, and at least one output AC voltage connection (A20a, A20b, A20c) at which AC current can be drawn, - wherein the converter arrangement comprises at least one series circuit comprising at least two submodules connected in series, - wherein the submodules of the series circuit each comprise at least one rectifier module, one inverter module and one transformer module, and - wherein the outputs of the transformer modules are connected in parallel and form the output AC voltage connection (A20a, A20b, A20c) or at least one of the output AC voltage connections, characterized by an - arc furnace that is connected to the output AC voltage connection (A20a, A20b, A20c) or the output AC voltage connections of the converter arrangement. - converter arrangement comprising at least one input AC voltage connection (E20a, E20b, E20c) at which an AC current can be fed in, and at least one output AC voltage connection (A20a, A20b, A20c) at which AC current can be drawn, - wherein the converter arrangement comprises at least one series circuit comprising at least two submodules connected in series, - wherein the submodules of the series circuit each comprise at least one rectifier module, one inverter module and one transformer module, and - wherein the outputs of the transformer modules are connected in parallel and form the output AC voltage connection (A20a, A20b, A20c) or at least one of the output AC voltage connections, characterized by an - wherein the converter arrangement comprises at least one series circuit comprising at least two submodules connected in series, - wherein the submodules of the series circuit each comprise at least one rectifier module, one inverter module and one transformer module, and - wherein the outputs of the transformer modules are connected in parallel and form the output AC voltage connection (A20a, A20b, A20c) or at least one of the output AC voltage connections, - arc furnace that is connected to the output AC voltage connection (A20a, A20b, A20c) or the output AC voltage connections of the converter arrangement.
A sheet defect detection apparatus (20; 120) for a sheet printing system, comprising: - a sheet sensing transport path; - a first and a second sheet quality detection device (21, 21') positioned along the sheet sensing transport path and configured for sensing sheets on the sheet sensing transport path, the first and second sheet quality detection devices (21, 21') defining respectively a first and a second sheet rejection threshold to which a sensed sheet is compared for determining its suitability for printing; characterised in that the apparatus further comprises - a controller configured to designate each sheet in a print job on each pass of a sheet over the sheet sensing transport path to one of the first and the second sheet quality detection devices (21, 21') based on a sheet state parameter of the sheet, such that each sheet is sensed by its designated one of the first and the second sheet quality detection devices (21, 21'). - a sheet sensing transport path; - a first and a second sheet quality detection device (21, 21') positioned along the sheet sensing transport path and configured for sensing sheets on the sheet sensing transport path, the first and second sheet quality detection devices (21, 21') defining respectively a first and a second sheet rejection threshold to which a sensed sheet is compared for determining its suitability for printing; characterised in that the apparatus further comprises - a controller configured to designate each sheet in a print job on each pass of a sheet over the sheet sensing transport path to one of the first and the second sheet quality detection devices (21, 21') based on a sheet state parameter of the sheet, such that each sheet is sensed by its designated one of the first and the second sheet quality detection devices (21, 21').
A method for generating a password by means of press touch, wherein the method comprises: determining, by a device, whether a current interface is in a password entering state; when determining that the current interface is in a password entering state, receiving, by the device, user input information, wherein the input information comprises a character and a pressure value generated when the character is entered; and processing, by the device, the character according to the pressure value, to generate a password, wherein the input information is (X n, Y n), X n is an entered character, Y n is a pressure value corresponding to X n, and n is a natural number; and the processing, by the device, the character according to the pressure value, to generate a password is specifically: determining, by the device, whether Y n is greater than a preset threshold Y max2; and when determining Y n >Y max2, generating, by the device, a password X n, X n, wherein X n, X n denotes repeatedly entering the character X n. determining, by a device, whether a current interface is in a password entering state; when determining that the current interface is in a password entering state, receiving, by the device, user input information, wherein the input information comprises a character and a pressure value generated when the character is entered; and processing, by the device, the character according to the pressure value, to generate a password, wherein the input information is (X n, Y n), X n is an entered character, Y n is a pressure value corresponding to X n, and n is a natural number; and the processing, by the device, the character according to the pressure value, to generate a password is specifically: determining, by the device, whether Y n is greater than a preset threshold Y max2; and when determining Y n >Y max2, generating, by the device, a password X n, X n, wherein X n, X n denotes repeatedly entering the character X n. determining, by the device, whether Y n is greater than a preset threshold Y max2; and when determining Y n >Y max2, generating, by the device, a password X n, X n, wherein X n, X n denotes repeatedly entering the character X n.
Method for producing pure and/or substituted lithium titanium phosphates with the general composition Li 1+x+y M x Ti 2-x (PO 4) 3-y (SiO 4) y, with M = Al, Ga, In, Sc, V, Cr, Mn, Co, Fe, Y, La - Lu and 0 ≤ x ≤ 0.5 and 0 ≤ y ≤ 0.5, in which production is by a sol-gel process, in which first a sol is produced from the initial materials, this is converted into a gel and a corresponding powder, comprising pure or substituted lithium titanium phosphate, is obtained by drying the gel and pre-sintering, characterised in that in a part step of the production process - titanium isopropoxide is added to water, in which precipitations of titanium hydroxide oxide form, - the system is cooled to temperatures below 10° C and - the precipitations are dissolved again by adding nitric acid, in which an aqueous TiO 2+ nitrate solution forms, - polycarboxylic acid is then added to the aqueous TiO 2+ nitrate solution, through which a stable aqueous TiO 2+ nitrate solution also forms at room temperature, and - phosphate ions are then added to the stable aqueous TiO 2+ nitrate solution to form the gel. - titanium isopropoxide is added to water, in which precipitations of titanium hydroxide oxide form, - the system is cooled to temperatures below 10° C and - the precipitations are dissolved again by adding nitric acid, in which an aqueous TiO 2+ nitrate solution forms, - polycarboxylic acid is then added to the aqueous TiO 2+ nitrate solution, through which a stable aqueous TiO 2+ nitrate solution also forms at room temperature, and - phosphate ions are then added to the stable aqueous TiO 2+ nitrate solution to form the gel.
House door leaf having a first panel forming the outer face, a second panel forming the inner face, and a door leaf frame on or at which the panels are held, wherein the first panel includes a handle indentation or recess indented into a cavity formed by said panels and said door leaf frame and including a house door handle in or on said recess, wherein the recess has a rounding in the region of a to be-engaged handle part of the handle for facilitating the insertion of one's fingers into the handle indentation or recess, wherein the house door handle is arranged substantially flush with the panel outer plane of the first panel, wherein the handle indentation or recess is extended beyond the handle in a finishing zone on a side of the handle opposite the handle part, characterized in that the handle indentation or recess tapers out towards the panel outer plane, wherein said finishing zone has a smooth surface.
A photomultiplier tube comprising: a cathode emitting electrons in response to incident light; a plurality of dynodes multiplying electrons emitted from the cathode, the plurality of dynodes including a first dynode positioned in a first stage from the cathode and a second dynode positioned in a second stage from the cathode; characterised in that: side walls (111a, 113a) are provided on both longitudinal ends of the first dynode expending from the ends of the first dynode toward the second dynode in a direction orthogonal to the longitudinal direction and side walls (111b, 113b) are formed on both ends of the second dynode; and respective first electron lens forming electrodes (115, 117) are disposed substantially parallel to the side walls (111a, 113a, 111b, 113b) between the side walls (111a, 113a) of the first dynode and the second dynode respectively at one longitudinal end and between the side walls (111b, 113b) of the first dynode and the second dynode respectively at the other longitudinal end so as to smooth an equipotential surface in a space between the first dynode and the second dynode along a longitudinal direction of the first dynode. a cathode emitting electrons in response to incident light; a plurality of dynodes multiplying electrons emitted from the cathode, the plurality of dynodes including a first dynode positioned in a first stage from the cathode and a second dynode positioned in a second stage from the cathode; side walls (111a, 113a) are provided on both longitudinal ends of the first dynode expending from the ends of the first dynode toward the second dynode in a direction orthogonal to the longitudinal direction and side walls (111b, 113b) are formed on both ends of the second dynode; and respective first electron lens forming electrodes (115, 117) are disposed substantially parallel to the side walls (111a, 113a, 111b, 113b) between the side walls (111a, 113a) of the first dynode and the second dynode respectively at one longitudinal end and between the side walls (111b, 113b) of the first dynode and the second dynode respectively at the other longitudinal end so as to smooth an equipotential surface in a space between the first dynode and the second dynode along a longitudinal direction of the first dynode.
A method of using a disposable pin for the production and positioning of parts made of composite material and glued together of an aircraft, said pin being produced by a moulding process and comprising an elongated body and a head integrated in a single body made of a reinforced thermoplastic material in a single molding step, said pin being traversed longitudinally by a through hole along the vertical axis of said pin; said method comprising: - providing a hole on the parts of the aircraft or of the assembly jig; - inserting the elongated body of the pin in said hole, so that the head limits the insertion of the pin in the aforesaid hole; - polymerizing the parts of the aircraft or the assembly jig; - extracting said pin by cleaning said hole with a drill guided by means of said through hole. - providing a hole on the parts of the aircraft or of the assembly jig; - inserting the elongated body of the pin in said hole, so that the head limits the insertion of the pin in the aforesaid hole; - polymerizing the parts of the aircraft or the assembly jig; - extracting said pin by cleaning said hole with a drill guided by means of said through hole.