mhurhangee/patent-ind-claim-en huggingface dataset:
A heat conductive sheet containing a curing reaction catalyst, wherein a heat conductive uncured composition not containing a curing reaction catalyst is joined to at least one principal surface of the heat conductive sheet containing a curing reaction catalyst, the heat conductive sheet containing a curing reaction catalyst contains the curing reaction catalyst in an amount necessary to cure the heat conductive uncured composition, and the heat conductive uncured composition comprises: (A) base polymer component: 100 parts by weight of linear organopolysiloxane having an average of two or more alkenyl groups per molecule, in which the alkenyl groups are bonded to silicon atoms at both ends of the molecular chain; (B) crosslinking component: less than 1 mol of organohydrogenpolysiloxane having an average of two or more hydrogen atoms bonded to silicon atoms per molecule, with respect to 1 mol of the alkenyl groups bonded to the silicon atoms contained in the component A; and (C) heat conductive particles: 100 to 3000 parts by weight with respect to 100 parts by weight of the component A. (A) base polymer component: 100 parts by weight of linear organopolysiloxane having an average of two or more alkenyl groups per molecule, in which the alkenyl groups are bonded to silicon atoms at both ends of the molecular chain; (B) crosslinking component: less than 1 mol of organohydrogenpolysiloxane having an average of two or more hydrogen atoms bonded to silicon atoms per molecule, with respect to 1 mol of the alkenyl groups bonded to the silicon atoms contained in the component A; and (C) heat conductive particles: 100 to 3000 parts by weight with respect to 100 parts by weight of the component A.
A laminate comprising: a backing member formed of a tape; a thermoplastic resin layer disposed on one side in a thickness direction of the backing member; and a foamed polyurethane layer disposed on another side in the thickness direction of the backing member, wherein the tape constitutes the backing member and is composed of a porous substrate and an adhesive layer, wherein the porous substrate is located at the side of the foamed polyurethane layer while the adhesive layer is located at the side of the thermoplastic resin layer, and wherein the thermoplastic resin layer and the backing member are sewn together. a backing member formed of a tape; a thermoplastic resin layer disposed on one side in a thickness direction of the backing member; and a foamed polyurethane layer disposed on another side in the thickness direction of the backing member, wherein the tape constitutes the backing member and is composed of a porous substrate and an adhesive layer, wherein the porous substrate is located at the side of the foamed polyurethane layer while the adhesive layer is located at the side of the thermoplastic resin layer, and wherein the thermoplastic resin layer and the backing member are sewn together.
Dough kneading device , - with a kneading drum for predefining the bottoms and side walls of kneading chambers for receiving dough pieces (TG) to be kneaded, - with a kneading belt which over a circumferential portion abuts the kneading drum for closing the kneading chambers , characterized in that - the kneading belt has a plurality of passage openings with a diameter which is smaller than 12 mm, wherein the kneading belt with the passage openings is designed in such a way that, via the use of the kneading belt with the passage openings , a contact surface between the kneading belt and the dough pieces (TG) to be kneaded is reduced during operation of the dough kneading device , - wherein the diameter of the passage openings is larger than 0.5 mm. - with a kneading drum for predefining the bottoms and side walls of kneading chambers for receiving dough pieces (TG) to be kneaded, - with a kneading belt which over a circumferential portion abuts the kneading drum for closing the kneading chambers , characterized in that - the kneading belt has a plurality of passage openings with a diameter which is smaller than 12 mm, wherein the kneading belt with the passage openings is designed in such a way that, via the use of the kneading belt with the passage openings , a contact surface between the kneading belt and the dough pieces (TG) to be kneaded is reduced during operation of the dough kneading device , - wherein the diameter of the passage openings is larger than 0.5 mm.
A dummy wafer for simulating a temperature distribution caused by heat generation of electronic devices, the dummy wafer comprising: a planar heater including two sheets of films and a plurality of heating elements sandwiched by the two sheets of films ; and a pair of plate-shaped members formed of an aluminum alloy or aluminum, wherein the planar heater is sandwiched by the plate-shaped members , wherein each of the heating elements has positive and negative terminals connected to a power supply to independently flow an electric current to each of the heating elements , so that one or more of the heating elements can selectively generate heat. a planar heater including two sheets of films and a plurality of heating elements sandwiched by the two sheets of films ; and a pair of plate-shaped members formed of an aluminum alloy or aluminum, wherein the planar heater is sandwiched by the plate-shaped members , wherein each of the heating elements has positive and negative terminals connected to a power supply to independently flow an electric current to each of the heating elements , so that one or more of the heating elements can selectively generate heat.
MEMS sensor designed to measure at least one measured variable, particularly a density, a flow and/or a viscosity, of a fluid, with - at least a micro-fluidic channel , -- which has at least one channel section that can be excited to vibrate, and - an exciter unit (E) designed to excite a useful vibration mode in which the channel section produces vibrations in a predefined vibration plane (x-y), characterized in that the channel section is made from an anisotropic material with an elasticity that depends on the direction, said section being spatially arranged in such a way that an elasticity module of the material that is a determining factor for a rigidity of the channel section in relation to deflections of the channel section that are perpendicular to the vibration plane (x-y) is greater than an elasticity module of the material that is a determining factor for a rigidity of the channel section in relation to deflections of the channel section extending in the vibration plane (x-y). - at least a micro-fluidic channel , -- which has at least one channel section that can be excited to vibrate, and - an exciter unit (E) designed to excite a useful vibration mode in which the channel section produces vibrations in a predefined vibration plane (x-y),
A suction hood comprising a body , which comprises a side wall , a rear wall and an upper wall , which encloses a work space open at a front side , and comprising a work plane having a front portion , wherein the upper wall of the body comprises a hole from which an evacuation duct departs, wherein the suction hood comprises delivery means for delivering a vertical air flow, arranged at the front side of the body or of the front portion of the work plane and facing either downwards or upwards, respectively, so as to create an air curtain configured to separate the work space from an external environment, characterized in that the evacuation duct comprises suction means at the hole of the upper wall , wherein the work space is in flow communication with the suction means that are adapted to convey air, fumes and vapors from the work space to the evacuation duct, and in that the delivery means and the suction means are configured so that the air curtain is directed towards the inside of the work plane , and is aspirated upwards by the suction means to the evacuation duct , and in that the suction means and the delivery means are configured so that the flow rate delivered by the delivery means is slower than the flow rate aspirated by the suction means . wherein the upper wall of the body comprises a hole from which an evacuation duct departs, wherein the suction hood comprises delivery means for delivering a vertical air flow, arranged at the front side of the body or of the front portion of the work plane and facing either downwards or upwards, respectively, so as to create an air curtain configured to separate the work space from an external environment, characterized in that the evacuation duct comprises suction means at the hole of the upper wall , wherein the work space is in flow communication with the suction means that are adapted to convey air, fumes and vapors from the work space to the evacuation duct, and in that the delivery means and the suction means are configured so that the air curtain is directed towards the inside of the work plane , and is aspirated upwards by the suction means to the evacuation duct , and in that the suction means and the delivery means are configured so that the flow rate delivered by the delivery means is slower than the flow rate aspirated by the suction means .
A localization apparatus, whose position in a localization space can be determined, comprising a movement sensor system with at least one translation sensor and at least one rotation sensor for detecting movement quantities acting on the localization apparatus , in particular linear accelerations and rotational accelerations, and at least one magnetometer device for detecting magnetic field data in the localization space , wherein rotation-invariant magnetic features can be determined from the detected rotation-dependent magnetic field data by means of an internal or external data processing device , a means for determining an absolute position of the localization apparatus in the localization space , and the internal or external data processing device for calculating a position by processing the measurement data of the movement sensor system by using a prestored magnetic field map including magnetic parameters, by using the rotation-invariant magnetic features, of at least parts of the localization space and for processing the determined absolute position, characterized in that for processing the rotation-invariant magnetic features a probabilistic grid-based Bayesian filter can be used for estimating the conditional probability P ( s | m ) of the system variables s, namely the position r and/or the orientation o, with respect to the current given magnetic field measurement values m of the magnetometer device. a movement sensor system with at least one translation sensor and at least one rotation sensor for detecting movement quantities acting on the localization apparatus , in particular linear accelerations and rotational accelerations, and at least one magnetometer device for detecting magnetic field data in the localization space , wherein rotation-invariant magnetic features can be determined from the detected rotation-dependent magnetic field data by means of an internal or external data processing device , a means for determining an absolute position of the localization apparatus in the localization space , and the internal or external data processing device for calculating a position by processing the measurement data of the movement sensor system by using a prestored magnetic field map including magnetic parameters, by using the rotation-invariant magnetic features, of at least parts of the localization space and for processing the determined absolute position, characterized in that for processing the rotation-invariant magnetic features a probabilistic grid-based Bayesian filter can be used for estimating the conditional probability P ( s | m ) of the system variables s, namely the position r and/or the orientation o, with respect to the current given magnetic field measurement values m of the magnetometer device.
A method comprising: - obtaining intensity information representative of a spectral image resulting from soiling of a textile ; - determining at least one output variable, which is dependent on the composition of the soiling , on the basis of the intensity information ; and - outputting or triggering the output of the at least one output variable, the at least one output variable comprising at least one parameter of a cleaning strategy for the textile to remove the soiling from the textile; - carrying out the cleaning strategy by means of a cleaning device , characterized in that the intensity information is obtained during a cleaning process, the cleaning process being carried out dynamically by the cleaning device adapting to the determined at least one output variable during the cleaning process. - obtaining intensity information representative of a spectral image resulting from soiling of a textile ; - determining at least one output variable, which is dependent on the composition of the soiling , on the basis of the intensity information ; and - outputting or triggering the output of the at least one output variable, the at least one output variable comprising at least one parameter of a cleaning strategy for the textile to remove the soiling from the textile; - carrying out the cleaning strategy by means of a cleaning device ,
Compound of formula (III): wherein: - R 1 , R 2 , R 3 and R 4 represent, independently of each other, H or an electron-withdrawing group A; - R 5 and R 8 represent, independently of each other, H or an electron-donating group D; - R 9 and R 10 represent, independently of each other, H or an electron-donating group D; X is selected from the group consisting of: O, S and NR, wherein R is selected from the group consisting of: H, an alkyl group preferably comprising from 1 to 20 carbon atoms, an aryl group preferably comprising from 6 to 22 carbon atoms, and a heteroaryl group. - R 1 , R 2 , R 3 and R 4 represent, independently of each other, H or an electron-withdrawing group A; - R 5 and R 8 represent, independently of each other, H or an electron-donating group D; - R 9 and R 10 represent, independently of each other, H or an electron-donating group D;
A photonic integrated circuit (200; 300), comprising: a substrate (202; 302); a first waveguide (204; 304) patterned upon the substrate (202; 302) and configured to guide an input beam of radiation; a second waveguide (206; 306) patterned upon the substrate (202; 302); a coupling region (208; 308), wherein the first (204; 304) and second (206; 306) waveguides each pass through the coupling region (208; 308); one or more modulating elements (210; 314) coupled to each of the first (204; 304) and second waveguides (206; 306); and a first facet (212a; 316a) at an end of the first waveguide (204; 304) and a second facet (212b; 316b) at an end of the second waveguide (206; 306), wherein the first facet (212a; 316a) is configured to transmit the input beam of radiation in order for the beam to impinge upon a sample and first and second reflections are generated at the first (212a; 316a) and second (212b; 316b) facets within the first (204; 304) and second (206; 306) waveguides, respectively, wherein the one or more modulating elements (210; 314) coupled to each of the first (204; 304) and second (206; 306) waveguides are configured to adjust the phase of the first and second reflections before the first and second reflections pass through the coupling region (208; 308) or a second coupling region . a substrate (202; 302); a first waveguide (204; 304) patterned upon the substrate (202; 302) and configured to guide an input beam of radiation; a second waveguide (206; 306) patterned upon the substrate (202; 302); a coupling region (208; 308), wherein the first (204; 304) and second (206; 306) waveguides each pass through the coupling region (208; 308); one or more modulating elements (210; 314) coupled to each of the first (204; 304) and second waveguides (206; 306); and a first facet (212a; 316a) at an end of the first waveguide (204; 304) and a second facet (212b; 316b) at an end of the second waveguide (206; 306), wherein the first facet (212a; 316a) is configured to transmit the input beam of radiation in order for the beam to impinge upon a sample and first and second reflections are generated at the first (212a; 316a) and second (212b; 316b) facets within the first (204; 304) and second (206; 306) waveguides, respectively, wherein the one or more modulating elements (210; 314) coupled to each of the first (204; 304) and second (206; 306) waveguides are configured to adjust the phase of the first and second reflections before the first and second reflections pass through the coupling region (208; 308) or a second coupling region .
A method for preparing adamantane-intercalated layered double-hydroxide (LDH) particles, the method comprising: adding to an aqueous solution a first precursor and a second precursor to form an initial mixture, where: the first precursor is Al(OH) 3 or Al 2 O 3 ; the second precursor is a hydroxide M(OH) 2 or an oxide MO, where M is a metal of oxidation state +2; and the initial mixture has a M/Al molar ratio from 1 to 5; the initial mixture has a solid loading of less than 10 weight % solids, based on a total weight of the initial solution; adding to the initial mixture an amount of adamantane to form a reaction mixture having an Al/adamantane molar ratio from 0.5 to 2, where the adamantane is added as a carboxylic acid; and heating the reaction mixture to produce the adamantane-intercalated LDH particles, where the adamantane-intercalated LDH particles have an aspect ratio greater than 100, the aspect ratio defined by a width of an adamantane-intercalated LDH particle divided by a thickness of the adamantane-intercalated LDH particle. adding to an aqueous solution a first precursor and a second precursor to form an initial mixture, where: the first precursor is Al(OH) 3 or Al 2 O 3 ; the second precursor is a hydroxide M(OH) 2 or an oxide MO, where M is a metal of oxidation state +2; and the initial mixture has a M/Al molar ratio from 1 to 5; the initial mixture has a solid loading of less than 10 weight % solids, based on a total weight of the initial solution; the first precursor is Al(OH) 3 or Al 2 O 3 ; the second precursor is a hydroxide M(OH) 2 or an oxide MO, where M is a metal of oxidation state +2; and the initial mixture has a M/Al molar ratio from 1 to 5; the initial mixture has a solid loading of less than 10 weight % solids, based on a total weight of the initial solution; adding to the initial mixture an amount of adamantane to form a reaction mixture having an Al/adamantane molar ratio from 0.5 to 2, where the adamantane is added as a carboxylic acid; and heating the reaction mixture to produce the adamantane-intercalated LDH particles, where the adamantane-intercalated LDH particles have an aspect ratio greater than 100, the aspect ratio defined by a width of an adamantane-intercalated LDH particle divided by a thickness of the adamantane-intercalated LDH particle.
Closure arrangement for an opening , in particular of a cupboard, shower enclosure, building and the like, having at least one closure element , in particular a louvre, roller shutter and the like, which is arranged movably from a closed position (GP) to an open position (OP) and back in the region of the opening , having blades arranged parallel to one another, wherein at least one blade has at least one hollow chamber and has at least one sliding arrangement on at least one free end, with at least one guide device arrangeable on the opening , wherein the sliding arrangement has at least one sliding element and a retaining device , wherein the retaining device has at least one receiving space , in which at least one fixing device is arranged, and wherein the fixing device has at least one fixing element , wherein the fixing device is operatively connected to at least one wall of the blade via at least one fixing element , characterised in that at least one locking element is arranged in the receiving space of the retaining device , and in that the fixing device is arranged movably in the receiving space of the retaining device so as to be longitudinally displaceable from a first position to a second position, in which second position the fixing device is fixed on the at least one locking element . the sliding arrangement has at least one sliding element and a retaining device , wherein the retaining device has at least one receiving space , in which at least one fixing device is arranged, and wherein the fixing device has at least one fixing element , wherein the fixing device is operatively connected to at least one wall of the blade via at least one fixing element , characterised in that at least one locking element is arranged in the receiving space of the retaining device , and in that the fixing device is arranged movably in the receiving space of the retaining device so as to be longitudinally displaceable from a first position to a second position, in which second position the fixing device is fixed on the at least one locking element .
Component of a carrier system comprising a strap element which is fastened to the component by a first end and comprises a second free end, by means of which it can be threaded through at least one loop of a second component in order to fasten the components to one another, wherein the strap element comprises a textile belt strap and a plastics element , characterised in that the plastics element is moulded onto the belt strap , wherein the strap element comprises at least one hinge region which connects regions of the plastics element adjoining said hinge region and in which the belt strap can be turned, and/or wherein the plastics element comprises at least one plastics region which serves as a film hinge.
An automation and control system of a low or medium voltage electric power network , comprising a communication system adapted to connect a substation control device located at a substation (16; 17) of the network to switching devices and to a plurality of Distributed Generation units of the network, for detecting islands in the power network, an island comprising loads and Distributed Generation units that are mutually interconnected on a same voltage level of the power network and disconnected from a main grid supplying the power network via the substation, wherein the automation and control system is adapted to consider all the Distributed Generation units located in between neighbouring switching devices so as to form an Anti Islanding Group, and wherein the substation control device is adapted to: - receive topological information of a sub-network (13; 14) of the power network, - identify, from the topological information, an island within the sub-network, and - send a signal to the Anti Islanding Group of the identified island, the signal either disconnecting the Distributed Generation units of the Anti Islanding Group or changing a control mode of the Distributed Generation units of the Anti Islanding Group from power injection to voltage and frequency control. - receive topological information of a sub-network (13; 14) of the power network, - identify, from the topological information, an island within the sub-network, and - send a signal to the Anti Islanding Group of the identified island, the signal either disconnecting the Distributed Generation units of the Anti Islanding Group or changing a control mode of the Distributed Generation units of the Anti Islanding Group from power injection to voltage and frequency control.
Load carrier for receiving and transporting piece goods having at least ferromagnetic components , with at least one base body , which is made of a particle foam and has a receiving contour on which the piece goods are placed, and with a plurality of permanent magnets , characterized in that each of the permanent magnets is received in a holding element which is anchored in the at least one base body and which is made of a non-ferromagnetic material that is harder than the particle foam.