mhurhangee/patent-ind-claim-en huggingface dataset:
A monolayered adhesive resin layer comprising an acrylic-based adhesive resin composition having transparency, wherein said adhesive resin composition contains (A) an acrylic-based polymer, (B) an acrylic-based monomer, and (C) a thermopolymerization initiator, said (B) acrylic-based monomer is a monomer of (meth)acrylate having a hydroxyl group, and said adhesive resin layer has pressure sensitive adhesiveness on both surfaces at an ambient temperature, and can be thermally cured by heating at a temperature of 100 to 250°C and a time of 30 seconds to 10 minutes. said adhesive resin composition contains (A) an acrylic-based polymer, (B) an acrylic-based monomer, and (C) a thermopolymerization initiator, said (B) acrylic-based monomer is a monomer of (meth)acrylate having a hydroxyl group, and said adhesive resin layer has pressure sensitive adhesiveness on both surfaces at an ambient temperature, and can be thermally cured by heating at a temperature of 100 to 250°C and a time of 30 seconds to 10 minutes.
Rising traffic bollard comprising a supporting structure adapted to be embedded in the ground and a bollard element mobile between an extracted position, in which said bollard element projects from the ground, and a retracted position, in which said bollard element is lowered in the ground, characterized in that said supporting structure comprises a plurality of skids , said bollard element comprises at least a side wall in which a plurality of longitudinal seats are obtained, which house a plurality of replaceable sliding profiles that extend along the length of said bollard element and that are configured to slide with respect to said skids .
A device for melting a hot-melt adhesive , comprising a heating plate , a plunger , the plunger comprising a plunger end face , a mounting and a storage container having an inner volume of more than 50 L, wherein the storage container has a rigid lateral wall and two opposite side faces and contains the hot-melt adhesive , the plunger end face and the heating plate are arranged opposite one another, and the storage container is received in the mounting in such a manner that the hot-melt adhesive is arranged between the plunger and the heating plate , wherein the storage container can be removed from the device, characterized in that the heating plate has a V-shaped surface structure which is formed by ribs , and wherein the V-shaped surface structure forms an outlet for melted hot-melt adhesive .
Anhydrous composition in aerosol form comprising, in particular in a physiologically acceptable medium: a) an oily phase comprising at least one volatile oil A, and b) at least one antiperspirant active agent chosen from aluminium and/or zirconium salts or complexes, and c) at least one dispersion of particles of methyl acrylate/ethyl acrylate (50/50 by weight) copolymer, stabilized by a random copolymer stabilizer containing 75.2% by weight of isobornyl acrylate, 3% of methyl acrylate, 3% of ethyl acrylate and 18.8% of monomethacryloyloxypropyl polydimethylsiloxane, in isododecane, and d) at least one propellant; wherein the liquid phase of said composition comprises a water content of less than 5% by weight, relative to the weight of the composition. a) an oily phase comprising at least one volatile oil A, and b) at least one antiperspirant active agent chosen from aluminium and/or zirconium salts or complexes, and c) at least one dispersion of particles of methyl acrylate/ethyl acrylate (50/50 by weight) copolymer, stabilized by a random copolymer stabilizer containing 75.2% by weight of isobornyl acrylate, 3% of methyl acrylate, 3% of ethyl acrylate and 18.8% of monomethacryloyloxypropyl polydimethylsiloxane, in isododecane, and d) at least one propellant;
An adapter for an irrigation system for anal and/or stomal irrigation, the adapter comprising a first connector , and a second connector , wherein the first connector and the second connector are connected by a first fluid path for feeding irrigation liquid from the first connector to the second connector , the adapter comprising a pressure control device arranged in the first fluid path , wherein the pressure control device has an inlet side and an outlet side and is configured to keep a liquid pressure on the outlet side less than a first pressure threshold, wherein the first pressure threshold is in the range from 6.9 kPa (1.0 Psi) to 21 kPa (3.0 Psi) characterised in that the adapter comprises a second channel connecting the first connector and the second connector for feeding second fluid from the first connector to the second connector .
A saw blade comprising a blade body having a top surface and a bottom surface , wherein the blade body is at least partially comprised of a composite material; a cutting edge on a distal end of the blade body ; and a coupling configured to connect the blade body to a handpiece adapted to oscillate the blade body , wherein the top surface of the blade body comprises a first inlay portion comprising a composite material, characterised in that the bottom surface of the blade body comprises a second inlay portion comprising a composite material. a blade body having a top surface and a bottom surface , wherein the blade body is at least partially comprised of a composite material; a cutting edge on a distal end of the blade body ; and a coupling configured to connect the blade body to a handpiece adapted to oscillate the blade body , wherein the top surface of the blade body comprises a first inlay portion comprising a composite material, characterised in that the bottom surface of the blade body comprises a second inlay portion comprising a composite material.
A multivariable sensing device (100;200;302;402;500;600) for sensing one or more parameters of a process fluid disposed in a container (304;404;512;610), comprising: a radio frequency based sensor (104;204;306;414;502;602) configured to sense a physical parameter, a chemical parameter, a biological parameter, or combinations thereof, representative of the process fluid, wherein the radio frequency based sensor comprises: a sensor substrate (110;612); a radio frequency coil (112;606) disposed on at least a portion of the sensor substrate; a support structure (102;202;308;405;504;604) configured to be physically coupled to the container, wherein the support structure is configured to position the radio frequency based sensor in operative proximity to an inside of the container; the device being characterised in that : the radio frequency based sensor is disposed in the support structure such that at least a portion of the sensor substrate faces the inside of the container; a sensing layer is disposed on at least a portion of the substrate such that, in operation, the sensing layer is disposed between the portion of the sensor substrate and the process fluid; and the radio frequency coil is disposed on an opposite side of the substrate from the sensing layer . a radio frequency based sensor (104;204;306;414;502;602) configured to sense a physical parameter, a chemical parameter, a biological parameter, or combinations thereof, representative of the process fluid, wherein the radio frequency based sensor comprises: a sensor substrate (110;612); a radio frequency coil (112;606) disposed on at least a portion of the sensor substrate; a support structure (102;202;308;405;504;604) configured to be physically coupled to the container, wherein the support structure is configured to position the radio frequency based sensor in operative proximity to an inside of the container; the device being characterised in that : the radio frequency based sensor is disposed in the support structure such that at least a portion of the sensor substrate faces the inside of the container; a sensing layer is disposed on at least a portion of the substrate such that, in operation, the sensing layer is disposed between the portion of the sensor substrate and the process fluid; and the radio frequency coil is disposed on an opposite side of the substrate from the sensing layer . the radio frequency based sensor is disposed in the support structure such that at least a portion of the sensor substrate faces the inside of the container; a sensing layer is disposed on at least a portion of the substrate such that, in operation, the sensing layer is disposed between the portion of the sensor substrate and the process fluid; and the radio frequency coil is disposed on an opposite side of the substrate from the sensing layer .
An organosilicone resin composition, characterized in that the organosilicone resin composition comprises in parts by weight: 100 parts of a condensation type silicone resin; 0.0001-2 parts of a catalyst; and 0.001-10 parts of an adjuvant wherein the condensation type silicone resin is any one selected from the group consisting of a methyl silicone resin, a methylphenyl silicone resin and a phenyl silicone resin with R/Si = 1.0-1.7 (molar ratio) and Ph/(Me+Ph) = 0-1.0 (molar ratio), or a mixture of at least two selected therefrom, wherein Ph represents a phenyl group, Me represents a methyl group, and R represents an organic functional group selected from -CH 3 , -Ph, -OCH 3 , - OCH 2 CH 3 , -H or -OH; and wherein the adjuvant comprises any one selected from the group consisting of a silane coupling agent, a titanate coupling agent, and a dispersant, or a mixture of at least two selected therefrom. 100 parts of a condensation type silicone resin; 0.0001-2 parts of a catalyst; and 0.001-10 parts of an adjuvant
A photovoltaic cell comprising: a first substantially intrinsic amorphous-based semiconductor film ; a second n-type amorphous-based semiconductor film ; a first translucent electrode layer; and a first collecting electrode in this order on a primary light incidence surface of an n-type crystal-based semiconductor, and a third substantially intrinsic amorphous-based semiconductor film ; a fourth p-type amorphous-based semiconductor film ; a second translucent electrode layer; and a second collecting electrode in this order on a back surface of said crystal-based semiconductor, wherein the first collecting electrode includes a first bus bar electrode and a plurality of first finger electrodes extending from the first bus bar electrode , the second collecting electrode includes a second bus bar electrode and a plurality of second finger electrodes extending from the second bus bar electrode , the second n-type amorphous-based semiconductor film is doped at a high concentration, a number of the first finger electrodes is smaller than a number of the second finger electrodes ; and an area where said first collecting electrode covers the first translucent electrode layer is smaller than an area where said second collecting electrode covers the second translucent electrode layer. a first substantially intrinsic amorphous-based semiconductor film ; a second n-type amorphous-based semiconductor film ; a first translucent electrode layer; and a first collecting electrode in this order on a primary light incidence surface of an n-type crystal-based semiconductor, and a third substantially intrinsic amorphous-based semiconductor film ; a fourth p-type amorphous-based semiconductor film ; a second translucent electrode layer; and a second collecting electrode in this order on a back surface of said crystal-based semiconductor, wherein the first collecting electrode includes a first bus bar electrode and a plurality of first finger electrodes extending from the first bus bar electrode , the second collecting electrode includes a second bus bar electrode and a plurality of second finger electrodes extending from the second bus bar electrode , the second n-type amorphous-based semiconductor film is doped at a high concentration, a number of the first finger electrodes is smaller than a number of the second finger electrodes ; and an area where said first collecting electrode covers the first translucent electrode layer is smaller than an area where said second collecting electrode covers the second translucent electrode layer.
A magnetic rotor comprising: a support structure with a rotational axis, with a front side having a first annular region encircling the rotational axis, and with a back side having a second annular region encircling the rotational axis, said support structure having a first array of pockets formed in the front side within the first annular region and encircling the rotational axis, and a second array of pockets formed in the back side within the second annular region and encircling the rotational axis, and wherein the pockets of the first array of pockets are interleaved with the pockets of the second array of pockets; a first plurality of magnets contained within the pockets of the first array of pockets on the first side of the support structure; and a second plurality of magnets contained within the pockets of the second array of pockets on the second side of the support structure, wherein each of the pockets of the first and second arrays of pockets has a depth less than a width of the rotor and comprises an obstruction against which the magnet contained within that pocket rests in the axial direction. a support structure with a rotational axis, with a front side having a first annular region encircling the rotational axis, and with a back side having a second annular region encircling the rotational axis, said support structure having a first array of pockets formed in the front side within the first annular region and encircling the rotational axis, and a second array of pockets formed in the back side within the second annular region and encircling the rotational axis, and wherein the pockets of the first array of pockets are interleaved with the pockets of the second array of pockets; a first plurality of magnets contained within the pockets of the first array of pockets on the first side of the support structure; and a second plurality of magnets contained within the pockets of the second array of pockets on the second side of the support structure, wherein each of the pockets of the first and second arrays of pockets has a depth less than a width of the rotor and comprises an obstruction against which the magnet contained within that pocket rests in the axial direction.
Beverage preparation machine comprising a frame provided with a cup support , a coffee dispensing spout comprising an outlet orifice and a rotary stirring device comprising a rotary tool about an axis A and intended to engage with a preparation contained in a container resting on the cup support , said rotary stirring device comprising a conduit for conveying hot water and/or steam to the rotary tool , the rotary stirring tool being mobile in vertical translation parallel to the axis A between a high pending position wherein the rotary tool is located above the container and a low working position wherein the rotary tool is located in the container, the outlet orifice being disconnected from the rotary stirring device and arranged at a distance D from the axis A of rotation of the rotary tool , characterised in that the distance D is constant and less than 6 cm, preferably less than 4 cm such that the outlet orifice of the coffee dispensing spout and the rotary tool are arranged above an upper opening of the container arranged on the cup support , in that the frame comprising a front face and in that the coffee dispensing spout and the rotary tool are arranged in front of the front face .
An apparatus for sampling one or more bioanalytes in tissue , comprising: a base having one or more conduits adapted to receive fluid extracted from the tissue; a plurality of microneedles fluidly coupled with the one or more conduits and adapted to be pierced into the tissue such that a tip of each microneedle is positioned in a respective sampling region of the tissue; a plurality of individually-controllable energy emitters ; and logic operably coupled with the plurality of individually-controllable energy-emitters, wherein the logic is adapted to operate a subset of the plurality of individually-controllable energy emitters to apply energy at a first subset of the plurality of microneedles to induce bioanalyte flow through tissue towards the first subset or a second subset of the plurality of microneedles, or through the first subset or a second subset of the plurality of microneedles. a base having one or more conduits adapted to receive fluid extracted from the tissue; a plurality of microneedles fluidly coupled with the one or more conduits and adapted to be pierced into the tissue such that a tip of each microneedle is positioned in a respective sampling region of the tissue; a plurality of individually-controllable energy emitters ; and logic operably coupled with the plurality of individually-controllable energy-emitters, wherein the logic is adapted to operate a subset of the plurality of individually-controllable energy emitters to apply energy at a first subset of the plurality of microneedles to induce bioanalyte flow through tissue towards the first subset or a second subset of the plurality of microneedles, or through the first subset or a second subset of the plurality of microneedles.
Cooling device for cooling intake air (FA) of an internal combustion engine of a vehicle, comprising a heat exchange bundle between a heat-transfer fluid (FC) and the intake air (FA), the heat exchange bundle comprising at least one pair of plates and at least one heat sink device of longitudinal extension, a housing which surrounds the heat exchange bundle , and at least one of the plates of the heat exchange bundle comprises a longitudinal securing device for the heat sink device , characterized in that at least one of the plates of the heat exchange bundle comprises a fusible part configured to press the plate of the heat exchange bundle against the housing upon the assembly of the cooling device and allow a separation of the plate from the heat exchange bundle and from the housing upon the use of the cooling device .
An aluminum alloy wire rod having a composition comprising 0.1 mass% to 1.0 mass% Mg; 0.1 mass% to 1.0 mass% Si; 0.01 mass% to 1.40 mass% Fe; 0.000 mass% to 0.100 mass% Ti; 0.000 mass% to 0.030 mass% B; 0.00 mass% to 1.00 mass% Cu; 0.00 mass% to 0.50 mass% Ag; 0.00 mass% to 0.50 mass% Au; 0.00 mass% to 1.00 mass% Mn; 0.00 mass% to 1.00 mass% Cr; 0.00 mass% to 0.50 mass% Zr; 0.00 mass% to 0.50 mass% Hf; 0.00 mass% to 0.50 mass% V; 0.00 mass% to 0.50 mass% Sc; 0.00 mass% to 0.50 mass% Sn; 0.00 mass% to 0.50 mass% Co; 0.00 mass% to 0.50 mass% Ni; and the balance being Al and inevitable impurities, characterized in that an area fraction of a region in which an angle formed by a longitudinal direction of the aluminum alloy wire rod and a <111> direction of a crystal is within 20° is greater than or equal to 20 % and less than or equal to 65 %.
A formaldehyde-free binder composition for mineral fibres comprising: - at least one phenol containing compound, - at least one protein, - at least one divalent metal cation M 2+ containing compound. - at least one phenol containing compound, - at least one protein, - at least one divalent metal cation M 2+ containing compound.
A method of data processing in a communication system, comprising: generating , based on an intended performance, an error detection code to be used; the error code comprising any one of: a redundant cyclic check code, a BCH code or a Hamming code; distributing bits of the error detection code in information bits to be encoded; and performing polar encoding on the information bits together with the error detection code distributed in the information bits wherein generating the error detection code to be used comprises: acquiring a generator matrix corresponding to the error detection code; and generating the error detection code based on the generator matrix; and wherein distributing the bits of the error detection code in the information bits to be encoded comprises: distributing the bits of the error detection code in the information bits by transforming the generator matrix; and wherein the error detection code comprises a first error detection bit, the first error detection bit being associated with a first information bit in the information bits, characterized in that distributing the bits of the error detection code in the information bits to be encoded comprises: distributing the first error detection bit to be adjacent to the first information bit by transforming at least one of a row and a column associated with the first error detection bit in the generator matrix. generating , based on an intended performance, an error detection code to be used; the error code comprising any one of: a redundant cyclic check code, a BCH code or a Hamming code; distributing bits of the error detection code in information bits to be encoded; and performing polar encoding on the information bits together with the error detection code distributed in the information bits wherein generating the error detection code to be used comprises: acquiring a generator matrix corresponding to the error detection code; and generating the error detection code based on the generator matrix; and wherein distributing the bits of the error detection code in the information bits to be encoded comprises: acquiring a generator matrix corresponding to the error detection code; and generating the error detection code based on the generator matrix; and wherein distributing the bits of the error detection code in the information bits to be encoded comprises: distributing the bits of the error detection code in the information bits by transforming the generator matrix; and wherein the error detection code comprises a first error detection bit, the first error detection bit being associated with a first information bit in the information bits, characterized in that distributing the bits of the error detection code in the information bits to be encoded comprises: distributing the first error detection bit to be adjacent to the first information bit by transforming at least one of a row and a column associated with the first error detection bit in the generator matrix.
Deep-drawn tray, in particular an aluminium tray , having a rolled edge and an encircling sealing face , by means of which it can be sealed to a lid, the rolled edge being provided with a lacquer , characterized in that a lacquer is provided on the rolled edge only.