mhurhangee/ep-ind-claims huggingface dataset:
A transparent colourless coating material for marking plastics containing a base and 0.001-1% w/w of fluorescent markers, wherein the fluorescent markers have a form of organic chemical compounds showing fluorescence and being chemically immobilised on a spherical polymer matrix with a diameter range 0.1-20 μm, preferably in the range of 1-3 μm, the most preferably 2 μm, dispersed in the whole volume of coating material, and wherein the chemical compounds are selected from the list of compounds consisting of: 1,8-naphtalimide, acenaphthene, anthracene, benzimidazole, benzoxasole, benzoxazine, benzothiadiazole, benzothiazole, quinazoline, quinoline, dansyl, diazobenzene, diphenylanthracene, dicarboximide, phenanthrene, phenanthroline, phenanthridine, phenoxazine, phenylethynyl, phenylimidazole, flavone, fluorene, naphthalene, oxadiazole, pyrazoline, spiropyran, stilbene, thiadiazole, thiazole derivatives, preferably diallyl-fluorescein, allyl-rhodamine B, 4'-allyloxy-3-hydroxyflavone, 2,5-bis(5-tert-butyl-benzoxazol-2-yl)thiophene, tert-butyl-pyrene or fluorescein, and wherein the base of the coating material is lacquer, silicone or aqueous dispersion of resins, preferably acrylic and alkyd ones, and wherein the coating material forming an identification code revealing itself in the form of fluorescent radiation after irradiation of the coating material with radiation with 250-650 nm wavelength.
Retraction device having a housing, in which a driving element can be guided by means of two support elements (42, 43) between a stable parked position and an end position along at least one first guide rail section and a second guide rail section enclosing an obtuse angle (α) with the first, wherein the driving element has a third support element which, together with a driving-element guiding member which can be guided in the direction of the second guide rail section and which is loaded in the direction of the end position by means of a spring energy accumulator, forms a pivoting prismatic joint, wherein the third support element is positioned in a guide slot of the driving-element guiding member, characterized in that - the driving-element guiding member has at least one stop for limiting the pivoting of the driving element, which stop protrudes beyond the first support element on the side facing away from the second guide rail section, and - in that the pivoting prismatic joint has a sliding direction enclosing an acute angle with the direction of the first guide rail section, wherein the apex of said angle, with respect to the bearing pins (42, 43), is located on the side facing away from the second guide rail section, and wherein the apex is thus located on the side of the horizontal axis connecting the centre points of the first two support elements (42, 43), which faces away from the third support element. - the driving-element guiding member has at least one stop for limiting the pivoting of the driving element, which stop protrudes beyond the first support element on the side facing away from the second guide rail section, and - in that the pivoting prismatic joint has a sliding direction enclosing an acute angle with the direction of the first guide rail section, wherein the apex of said angle, with respect to the bearing pins (42, 43), is located on the side facing away from the second guide rail section, and
A method of building a foundation comprising a steel monopile and a precast concrete part on top of the monopile, the method comprising: - arranging a support structure inside the monopile, the support structure having a plurality of rods extending radially with respect to a longitudinal axis of the monopile; - driving the monopile into a ground; - bringing the precast concrete part above the monopile, with supporting columns interposed between the support structure and a transverse abutment surface of the precast concrete part to transfer the weight of the precast concrete part to the monopile, wherein reinforcement bars protruding from a bottom surface of the precast concrete part extend downwardly beyond the support structure by passing between the rods of the support structure; - arranging tendons between the support structure and the precast concrete part and tensioning the tendons to pre-stress the supporting columns; and - pouring concrete into an upper part of the monopile such that the support structure and the supporting columns are embedded in concrete. - arranging a support structure inside the monopile, the support structure having a plurality of rods extending radially with respect to a longitudinal axis of the monopile; - driving the monopile into a ground; - bringing the precast concrete part above the monopile, with supporting columns interposed between the support structure and a transverse abutment surface of the precast concrete part to transfer the weight of the precast concrete part to the monopile, wherein reinforcement bars protruding from a bottom surface of the precast concrete part extend downwardly beyond the support structure by passing between the rods of the support structure; - arranging tendons between the support structure and the precast concrete part and tensioning the tendons to pre-stress the supporting columns; and - pouring concrete into an upper part of the monopile such that the support structure and the supporting columns are embedded in concrete.
A boiler (50,52) with a heating blower, comprising: a housing including a storage tub storing water therein, a first space formed at a first end of the storage tub, a first barrier insulating the storage tub and the first space, a second space formed at a second end of the storage tub, a second barrier insulating the storage tub and the second space, and an inlet and an outlet formed on both sides of the storage tub; a burner unit including a flame guide tube elongated in the storage tub, with a first end connected with the first space through the first barrier and a second end connected with the second space through the second battier, and a burner disposed in the flame guide tube; a plurality of flue tubes disposed between an inner surface of the storage tub and the flame guide tube, with an end connected with the first space through the first barrier and a second end connected with the second space through the second barrier; characterised in a heating blower (400, 450) having a first end mounted on the storage tub and a second end passing through the storage tub, and generating hot wind toward the flame guide tube, wherein a flame generated by the burner moves toward the first end of the flame tube and is then supplied to the flue tubes through the first space, and hot wind generated by the heating blower (400,450) moves to the flame guide tube and is then supplied to the flue tubes through the first space. a housing including a storage tub storing water therein, a first space formed at a first end of the storage tub, a first barrier insulating the storage tub and the first space, a second space formed at a second end of the storage tub, a second barrier insulating the storage tub and the second space, and an inlet and an outlet formed on both sides of the storage tub; a burner unit including a flame guide tube elongated in the storage tub, with a first end connected with the first space through the first barrier and a second end connected with the second space through the second battier, and a burner disposed in the flame guide tube; a plurality of flue tubes disposed between an inner surface of the storage tub and the flame guide tube, with an end connected with the first space through the first barrier and a second end connected with the second space through the second barrier; characterised in a heating blower (400, 450) having a first end mounted on the storage tub and a second end passing through the storage tub, and generating hot wind toward the flame guide tube, wherein a flame generated by the burner moves toward the first end of the flame tube and is then supplied to the flue tubes through the first space, and hot wind generated by the heating blower (400,450) moves to the flame guide tube and is then supplied to the flue tubes through the first space.
A method for selectively allowing access to communications between a user associated with a user-inbox coupled to an electronic communications network and a sender coupled to the electronic communications network, comprising: receiving an inbound message over the electronic communications network from the sender, wherein the inbound message includes a sender identifier associated with the sender and a recipient identifier associated with the user as a recipient, wherein the recipient identifier is one of a plurality of unique proxy identifiers substituted for an original recipient identifier associated with the user, and wherein each unique proxy identifier is registered for use with a corresponding sender of a plurality of senders; determining one of at least three security states associated with the inbound message, wherein a first security state is indicative of allowing delivery of the inbound message to the user-inbox, a second security state is indicative of denying delivery of the inbound message to the user-inbox, a third security state is indicative of conditionally allowing delivery of the message to the user-inbox, each of the at least three security states is associated with whether the sender is registered for use with the recipient identifier included in the inbound message; and if delivery is allowed, changing all references to the recipient identifier to the original recipient identifier; adding a footer to the inbound message, and delivering the inbound message; said footer being configured to serve as an interface for the user to allow the user to control the security settings associated with the user. receiving an inbound message over the electronic communications network from the sender, wherein the inbound message includes a sender identifier associated with the sender and a recipient identifier associated with the user as a recipient, wherein the recipient identifier is one of a plurality of unique proxy identifiers substituted for an original recipient identifier associated with the user, and wherein each unique proxy identifier is registered for use with a corresponding sender of a plurality of senders; determining one of at least three security states associated with the inbound message, wherein a first security state is indicative of allowing delivery of the inbound message to the user-inbox, a second security state is indicative of denying delivery of the inbound message to the user-inbox, a third security state is indicative of conditionally allowing delivery of the message to the user-inbox, each of the at least three security states is associated with whether the sender is registered for use with the recipient identifier included in the inbound message; and if delivery is allowed, changing all references to the recipient identifier to the original recipient identifier; adding a footer to the inbound message, and delivering the inbound message; said footer being configured to serve as an interface for the user to allow the user to control the security settings associated with the user.
Cookware lid comprising a lid base body and a circumferential frame, wherein the lid base body is connected to the frame by a casting compound, wherein a receiving region is formed in the frame for an extensive edge section of the lid base body, wherein the volume of the receiving region is greater than the volume of the edge section, and wherein an intermediate space, provided in the receiving region, between the lid base body and the frame is filled with the casting compound, characterised in that a sealing edge (5, 15) is formed in the frame or on the lid base body which acts as a flow barrier for the casting compound when the casting compound is introduced between the frame and the lid base body.
A method comprising a) mixing a sample and a group of tagging polynucleotides, wherein the sample comprises a mixture of nucleic acids of different length and/or different sequence, wherein the tagging polynucleotides comprise a palindromic sequence configured to self-hybridize into a double stranded segment, and wherein the double stranded segment comprises a restriction site, wherein the tagging polynucleotides individually comprise an invariant sequence and a random sequence, and wherein the mixing is done under conditions such that the tagging polynucleotides bind the nucleic acids to form nucleic acids individually tagged with the random sequence; b) circularizing the nucleic acids individually tagged; c) amplifying with Rolling Circle Amplification the nucleic acids individually tagged with random sequences into a mixture of homo-concatemers, wherein the homo-concatemers comprise a repeat of the nucleic acid from the sample and a repeat of the tagging polynucleotide; d) fragmenting the homo-concatemers to form homo-concatemer fragments; e) cleaving the homo-concatemer fragments with a restriction nuclease to produce cleaved homo-concatemer fragments, wherein the restriction nuclease cleaves a site within the invariant sequence on the tagging polynucleotides; and f) sequencing the homo-concatemer fragments. a) mixing a sample and a group of tagging polynucleotides, wherein the sample comprises a mixture of nucleic acids of different length and/or different sequence, wherein the tagging polynucleotides comprise a palindromic sequence configured to self-hybridize into a double stranded segment, and wherein the double stranded segment comprises a restriction site, wherein the tagging polynucleotides individually comprise an invariant sequence and a random sequence, and wherein the mixing is done under conditions such that the tagging polynucleotides bind the nucleic acids to form nucleic acids individually tagged with the random sequence; b) circularizing the nucleic acids individually tagged; c) amplifying with Rolling Circle Amplification the nucleic acids individually tagged with random sequences into a mixture of homo-concatemers, wherein the homo-concatemers comprise a repeat of the nucleic acid from the sample and a repeat of the tagging polynucleotide; d) fragmenting the homo-concatemers to form homo-concatemer fragments; e) cleaving the homo-concatemer fragments with a restriction nuclease to produce cleaved homo-concatemer fragments, wherein the restriction nuclease cleaves a site within the invariant sequence on the tagging polynucleotides; and f) sequencing the homo-concatemer fragments.
A compound of formula: or a pharmaceutically acceptable salt thereof, wherein R 1 and R 2 are the same and are C 12 to C 20 alkyl; L is -L 1 -Z 1 -L 3 -; L 1 is a bond; Z 1 is -N(R c)C O-, -N(R c)C N(R c)-, or -N(R c)C -, wherein the leftmost nitrogen atom in Z 1 is bound to the central tertiary carbon atom of formula; L 3 is -(CR a R b) i -; each A is, independently, -L 4 -; b is an integer from 5 to 500; each L 4, independently, is -OCH 2 CH 2 -, -CH 2 CH 2 O-, -OCH(CH 3)CH 2 - or -OCH 2 CH(CH 3)-; R 3 is -OR c; each occurrence of R a, R b, and R c is, independently, H or alkyl; and i is 2. R 1 and R 2 are the same and are C 12 to C 20 alkyl; L is -L 1 -Z 1 -L 3 -; L 1 is a bond; Z 1 is -N(R c)C O-, -N(R c)C N(R c)-, or -N(R c)C -, wherein the leftmost nitrogen atom in Z 1 is bound to the central tertiary carbon atom of formula; L 3 is -(CR a R b) i -; each A is, independently, -L 4 -; b is an integer from 5 to 500; each L 4, independently, is -OCH 2 CH 2 -, -CH 2 CH 2 O-, -OCH(CH 3)CH 2 - or -OCH 2 CH(CH 3)-; R 3 is -OR c; each occurrence of R a, R b, and R c is, independently, H or alkyl; and i is 2.
A polymerizable composition comprising: a 3,4-dihydro-1,3-benzoxazine; an acid-forming peroxide catalyst; and a co-catalyst, a curative, or a combination thereof,_wherein the composition is polymerizable by ionic ring opening of the benzoxazine, wherein the acid-forming peroxide catalyst is present in an amount of 0.1 wt-% to 10 wt-%, based on the total weight of the benzoxazine; wherein when the polymerizable composition comprises the co-catalyst, the co-catalyst is either selected from the group of elemental sulfur, elemental selenium, a sulfide of a Group VA element, a sulfide of a Group VIA element, a selenide of a Group VA element, a selenide of a Group VIA element, and a combination thereof or is a salt of an organometallic complex cation; and wherein when the polymerizable composition comprises the curative, the curative is selected from the group of a thiol compound, an amine compound, and a combination thereof. a 3,4-dihydro-1,3-benzoxazine; an acid-forming peroxide catalyst; and a co-catalyst, a curative, or a combination thereof,_wherein the composition is polymerizable by ionic ring opening of the benzoxazine, wherein the acid-forming peroxide catalyst is present in an amount of 0.1 wt-% to 10 wt-%, based on the total weight of the benzoxazine;
A method for pressing a workpiece with a predetermined pressing force, by means of a forming tool, which is coupled by way of a gear mechanism, in particular a spindle drive, with an electric motor, wherein the gear mechanism converts the rotational movement of a drive shaft of the electric motor into a translational movement of the forming tool, and wherein the electric motor is controlled by a closed loop controller, characterized in that the method comprises the following method steps: - accelerating the electric motor in the clockwise direction of rotation, to a predetermined maximum rotational speed, whereby the forming tool is moved toward the workpiece; - operating the electric motor at the maximum rotational speed until the drive shaft of the electric motor has completed a predetermined number of revolutions or the forming tool has reached a predetermined position, wherein during this method step, the forming tool is freely moved toward the workpiece, without touching it; - reducing the rotational speed of the electric motor to a predetermined reduced rotational speed; - operating the electric motor at the reduced rotational speed until a pressing force increase is detected by a measuring unit that follows the electric motor, which increase exceeds a predetermined threshold value, wherein the pressing force increase occurs when the forming tool comes to lie against the workpiece to be formed; - forming the workpiece with constant detection of the pressing force by means of the measuring unit until the predetermined pressing force has been reached. - accelerating the electric motor in the clockwise direction of rotation, to a predetermined maximum rotational speed, whereby the forming tool is moved toward the workpiece; - operating the electric motor at the maximum rotational speed until the drive shaft of the electric motor has completed a predetermined number of revolutions or the forming tool has reached a predetermined position, wherein during this method step, the forming tool is freely moved toward the workpiece, without touching it; - reducing the rotational speed of the electric motor to a predetermined reduced rotational speed; - operating the electric motor at the reduced rotational speed until a pressing force increase is detected by a measuring unit that follows the electric motor, which increase exceeds a predetermined threshold value, wherein the pressing force increase occurs when the forming tool comes to lie against the workpiece to be formed; - forming the workpiece with constant detection of the pressing force by means of the measuring unit until the predetermined pressing force has been reached.
A lighting device comprising: - a plurality of luminescent concentrators, each luminescent concentrator comprising an elongated light transmissive body having a first face and a second face wherein the distance between the first face and the second face defines a length of the elongated body, the elongated body comprising one or more radiation input faces extending between the first face and the second face, and a radiation exit window, wherein the second face comprises said radiation exit window; each elongated light transmissive body comprising a luminescent material configured to convert at least part of a pump radiation received at one or more radiation input faces into luminescent material light, and each luminescent concentrator configured to couple at least part of the luminescent material light out at the radiation exit window as converter light, - a plurality of light sources configured to provide light source light as first pump radiation to the radiation input faces of a plurality of first luminescent concentrators; - said plurality of first luminescent concentrators, configured to provide first luminescent material light at the respective radiation exit windows of the first luminescent concentrators as first converter light, and configured to provide said first converter light as second pump radiation to one or more radiation input faces of a second luminescent concentrator; and - said second luminescent concentrator, configured to provide second luminescent material light at the radiation exit window of the second luminescent concentrator as second converter light. - a plurality of luminescent concentrators, each luminescent concentrator comprising an elongated light transmissive body having a first face and a second face wherein the distance between the first face and the second face defines a length of the elongated body, the elongated body comprising one or more radiation input faces extending between the first face and the second face, and a radiation exit window, wherein the second face comprises said radiation exit window; each elongated light transmissive body comprising a luminescent material configured to convert at least part of a pump radiation received at one or more radiation input faces into luminescent material light, and each luminescent concentrator configured to couple at least part of the luminescent material light out at the radiation exit window as converter light, - a plurality of light sources configured to provide light source light as first pump radiation to the radiation input faces of a plurality of first luminescent concentrators; - said plurality of first luminescent concentrators, configured to provide first luminescent material light at the respective radiation exit windows of the first luminescent concentrators as first converter light, and configured to provide said first converter light as second pump radiation to one or more radiation input faces of a second luminescent concentrator; and - said second luminescent concentrator, configured to provide second luminescent material light at the radiation exit window of the second luminescent concentrator as second converter light.