mhurhangee/ep-ind-claims huggingface dataset:
Printing machine for printing a laminar web, the printing machine comprising: rollers defining a web path for guiding a web, the rollers including first and second supporting rollers (12a, 12b) defining therebetween a printing area of the web path, a pulling device being adapted to maintain a constant tension in the web guided through the printing area; an inkjet printing station comprising a plurality of inkjet printing modules with inkjet print heads facing the printing area of the web path for printing thereon, characterised in the inkjet printing modules being slidably arranged along a transverse guide transverse to the web path, each inkjet printing module being adapted for printing a fraction of the width of the printing area with digitally modifiable items; the printing machine further comprises a positioning device adapted to precisely slide the inkjet printing modules along the transverse guide in the direction transversal to the web path; each inkjet printing module includes a first coupling and is independent from other inkjet printing modules allowing an independent movement of each inkjet printing module along the transverse guide; the positioning device includes a second coupling complementary to each first coupling, the second coupling being releasably engageable to each first coupling in an automatic manner by an engagement driver, the positioning device being configured to precisely slide each inkjet printing module engaged thereto, through the engaged first and second couplings (31, 32), along the transverse guide. rollers defining a web path for guiding a web, the rollers including first and second supporting rollers (12a, 12b) defining therebetween a printing area of the web path, a pulling device being adapted to maintain a constant tension in the web guided through the printing area; an inkjet printing station comprising a plurality of inkjet printing modules with inkjet print heads facing the printing area of the web path for printing thereon, characterised in the inkjet printing modules being slidably arranged along a transverse guide transverse to the web path, each inkjet printing module being adapted for printing a fraction of the width of the printing area with digitally modifiable items; the printing machine further comprises a positioning device adapted to precisely slide the inkjet printing modules along the transverse guide in the direction transversal to the web path; each inkjet printing module includes a first coupling and is independent from other inkjet printing modules allowing an independent movement of each inkjet printing module along the transverse guide; the positioning device includes a second coupling complementary to each first coupling, the second coupling being releasably engageable to each first coupling in an automatic manner by an engagement driver, the positioning device being configured to precisely slide each inkjet printing module engaged thereto, through the engaged first and second couplings (31, 32), along the transverse guide.
An atomiser assembly comprising an energy generator (10, 110, 210) configured to emit an energy wave, and a channel device (20, 120, 220) comprising a channel (25, 125, 225) in the form of a bore and having a channel inlet (127i, 227i) and a channel outlet (127o, 227o), wherein the distance between the energy generator (10, 110, 210) and the channel outlet (127o, 227o) approaches a multiple of n(λ/4) where n is an odd number, characterised in that the assembly comprises a fluid delivery device (30, 130, 230) having a fluid outlet arranged adjacent to the channel outlet (127o, 227o), the channel device (20, 120, 220) comprises a plate having opposite inlet (21, 121, 221) and outlet surfaces on which the channel inlet (127i, 227i) and channel outlet (127o, 227o) are respectively disposed, the channel inlet (127i, 227i) admits the energy wave from the energy generator (10, 110, 210) into the channel (25, 125, 225) and the channel outlet (127o, 227o) is configured to emit the energy wave generated by the energy generator (10, 110, 210) wherein the energy wave has a frequency in the range of frequencies from 20 kHz to 70 kHz, the inlet surface (21, 121, 221) and the active face (12, 112, 212) of the energy generator (10, 110, 210) are separated by a gap filled by a gas and the channel (25, 125, 225) is filled by a gas, and a standing wave is established within the channel (25, 125, 225).
System for immobilization of a patient body part for radiotherapy applications comprising: - A device comprising at least one flanged support member and at least one support member fixation means for mounting the at least one flanged support member to a fixation surface at a distance from said fixation surface, wherein the at least one flanged support member is adapted to receive and retain a first and a second frame; - A first frame, comprising a first sheet for covering anatomical contours of a first area of said body part, wherein the first frame forms a circumferential rim for the first sheet; - a second frame, comprising a second sheet for covering anatomical contours of a second area of said body part which is not covered by the first sheet, wherein the second frame forms a circumferential rim for the second sheet, wherein the second frame is superimposable on the first frame, wherein the first sheet and the second sheet form a double shell mask enclosing said body part; characterized in that the at least one flanged support member comprises at one side a curved extension towards the fixation surface, wherein the first frame or the first frame and the second frame are bent to follow the curved extension of the at least one flanged support member. - A device comprising at least one flanged support member and at least one support member fixation means for mounting the at least one flanged support member to a fixation surface at a distance from said fixation surface, wherein the at least one flanged support member is adapted to receive and retain a first and a second frame; - A first frame, comprising a first sheet for covering anatomical contours of a first area of said body part, wherein the first frame forms a circumferential rim for the first sheet; - a second frame, comprising a second sheet for covering anatomical contours of a second area of said body part which is not covered by the first sheet, wherein the second frame forms a circumferential rim for the second sheet, wherein the second frame is superimposable on the first frame, wherein the first sheet and the second sheet form a double shell mask enclosing said body part;
A polyolefin composition comprising: 18-35% by weight of a copolymer of propylene with at least one alpha-olefin of formula CH 2 =CHR, where R is H or a linear or branched C2-C3 alkyl, wherein i) the copolymer contains 2.0-4.0% by weight of at least one alpha-olefin, the amount of the alpha-olefin is based on the total weight of; and ii) the propylene copolymer has melt flow rate (MFR A), measured according to ISO 1133, 230°C, 2.16 kg, ranging from 30 to 60 g/10min; and 65-82% by weight of a copolymer of propylene with at least one alpha-olefin of formula CH 2 =CHR, and optionally a diene, where R is H or a linear or branched C2-C8 alkyl and wherein the copolymer comprises 20-35% by weight of alpha-olefin, the amount of alpha olefin is based on the total weight of, wherein iii) the polyolefin composition comprises a fraction that is soluble in xylene at 25°C (XS(tot)) in an amount higher than 70% by weight; iv) the amounts of, and of the fraction soluble in xylene at 25°C (XS(tot)) are based on the total weight of the polyolefin composition; and v) the melt flow rate, measured according to ISO 1133, 230°C, 2.16 kg, of the polyolefin composition ranges from 0.2 to 2.0 g/10 min. 18-35% by weight of a copolymer of propylene with at least one alpha-olefin of formula CH 2 =CHR, where R is H or a linear or branched C2-C3 alkyl, wherein i) the copolymer contains 2.0-4.0% by weight of at least one alpha-olefin, the amount of the alpha-olefin is based on the total weight of; and ii) the propylene copolymer has melt flow rate (MFR A), measured according to ISO 1133, 230°C, 2.16 kg, ranging from 30 to 60 g/10min; and i) the copolymer contains 2.0-4.0% by weight of at least one alpha-olefin, the amount of the alpha-olefin is based on the total weight of; and ii) the propylene copolymer has melt flow rate (MFR A), measured according to ISO 1133, 230°C, 2.16 kg, ranging from 30 to 60 g/10min; and 65-82% by weight of a copolymer of propylene with at least one alpha-olefin of formula CH 2 =CHR, and optionally a diene, where R is H or a linear or branched C2-C8 alkyl and wherein the copolymer comprises 20-35% by weight of alpha-olefin, the amount of alpha olefin is based on the total weight of, iii) the polyolefin composition comprises a fraction that is soluble in xylene at 25°C (XS(tot)) in an amount higher than 70% by weight; iv) the amounts of, and of the fraction soluble in xylene at 25°C (XS(tot)) are based on the total weight of the polyolefin composition; and v) the melt flow rate, measured according to ISO 1133, 230°C, 2.16 kg, of the polyolefin composition ranges from 0.2 to 2.0 g/10 min.
A method for producing a molded article by cold pressing, the molded article including carbon fibers and a thermoplastic resin, the molded article being provided with a hole h1, the method including: boring a hole h0 into a molding material having a thickness t; and disposing the molding material in a pair of male and female molds (303, 304), at least one of the male and female molds (303, 304) having a hole-forming member for forming the hole h1, after the boring of the hole h0 so that the hole h0 corresponds to the hole-forming member, wherein at the time of disposing the molding material in the molds (303, 304), an average distance Lf between an inner wall face W0 of the hole h0 of the molding material and the hole-forming member is 0<Lf<10t, characterised in that the molded article has a region a around the hole h1, a linear expansion coefficient C1 of the region a in the plate thickness direction and a linear expansion coefficient C2 of a molded article region other than the region a in the plate thickness direction satisfies relation of C1/C2<1, and a volume fraction Vf1 of the carbon fibers in the region a and a volume fraction Vf2 of the carbon fibers in the molded article region other than the region a satisfies a relation of 0.2<Vf1/Vf2. boring a hole h0 into a molding material having a thickness t; and disposing the molding material in a pair of male and female molds (303, 304), at least one of the male and female molds (303, 304) having a hole-forming member for forming the hole h1, after the boring of the hole h0 so that the hole h0 corresponds to the hole-forming member, wherein at the time of disposing the molding material in the molds (303, 304), an average distance Lf between an inner wall face W0 of the hole h0 of the molding material and the hole-forming member is 0<Lf<10t, characterised in that the molded article has a region a around the hole h1, a linear expansion coefficient C1 of the region a in the plate thickness direction and a linear expansion coefficient C2 of a molded article region other than the region a in the plate thickness direction satisfies relation of C1/C2<1, and a volume fraction Vf1 of the carbon fibers in the region a and a volume fraction Vf2 of the carbon fibers in the molded article region other than the region a satisfies a relation of 0.2<Vf1/Vf2.
A ski boot comprising: a substantially rigid foot-casing which is shaped so as to accommodate the user's foot, and has the lower part structured so as to couple with a ski binding device; a substantially rigid cuff which is shaped so as to surround the lower part of the user's leg, and is pivotally joined to the foot-casing so as to be able to swing about a rotation axis substantially perpendicular to the midplane of the boot; and foot-casing closing means adapted to selectively tighten the foot-casing against the user's foot; the foot-casing being superiorly provided with a main opening from which the user's leg comes out, and with a longitudinal slit that branches off from said main opening and extends along the upper part of the foot-casing, towards the front tip of the same foot-casing; wherein said foot-casing closing means comprise: a plurality of first transversal flexible tongues that are arranged inside the foot-casing astride and transversal to the two longer lateral and opposite edges of the longitudinal slit, and are firmly fixed to the foot-casing so as to extend cantilevered inside of the longitudinal slit; a second transversal flexible tongue which is arranged inside the foot-casing astride and transversal to one of the two longer lateral edges of the longitudinal slit, and is firmly fixed to the foot-casing so as to extend cantilevered inside the longitudinal slit; and a cable-winding winch which is rigidly fixed on said second transversal flexible tongue, within the perimeter of the longitudinal slit, and is provided with a tightening cable that exits from the cable-winding winch and engages, in pass-through and freely sliding manner, the distal ends of the various first transversal flexible tongues. the foot-casing being superiorly provided with a main opening from which the user's leg comes out, and with a longitudinal slit that branches off from said main opening and extends along the upper part of the foot-casing, towards the front tip of the same foot-casing; wherein said foot-casing closing means comprise: a plurality of first transversal flexible tongues that are arranged inside the foot-casing astride and transversal to the two longer lateral and opposite edges of the longitudinal slit, and are firmly fixed to the foot-casing so as to extend cantilevered inside of the longitudinal slit; a second transversal flexible tongue which is arranged inside the foot-casing astride and transversal to one of the two longer lateral edges of the longitudinal slit, and is firmly fixed to the foot-casing so as to extend cantilevered inside the longitudinal slit; and a cable-winding winch which is rigidly fixed on said second transversal flexible tongue, within the perimeter of the longitudinal slit, and is provided with a tightening cable that exits from the cable-winding winch and engages, in pass-through and freely sliding manner, the distal ends of the various first transversal flexible tongues.
An oral care product, comprising: (a) a first oral care composition comprising an amine fluoride; and (b) a second oral care composition comprising an acidic polymer; wherein the amine fluoride and acidic polymer have respective first and second reactive groups which are arranged to react together to form a cross-linked copolymer of the amine fluoride and acidic polymer when the oral care product is applied to an oral cavity, wherein the first and second oral care compositions are separate from one another; wherein the amine fluoride comprises hydroxyalkyl groups as the first reactive groups, wherein the amine fluoride comprises at least one C 10 to C 24 carbon chain, and wherein the acidic polymer comprises carboxylic acid groups as the second reactive groups. (a) a first oral care composition comprising an amine fluoride; and (b) a second oral care composition comprising an acidic polymer;
A method of laying a pipeline on the bed of a body of water, the method comprising the steps of constructing, on a laying vessel, a pipeline comprising pipe sections of a given thickness, and thicker pipe sections distributed along the pipeline; moving the laying vessel forward and laying the pipeline in the body of water as the pipeline is constructed; and propelling a train (13; 32), designed to plug the pipeline, inside the pipeline laid on the bed of the body of water; travel of the train (13; 32) being related to the position of the thicker pipe sections, and to the touchdown point of the pipeline on the bed of the body of water.
A padding element (10, 20, 30) for a clothing item, comprising a first liner (1, 21, 31) facing towards a first direction, a second liner (2, 22, 32) facing towards a second direction which is opposite to the first direction, and a plurality of compact pads, said first liner (1, 21, 31) and said second liner (2, 22, 32) being joined together along at least a perimetric portion, so as to create an intermediate space between the first liner (1, 21, 31) and the second liner (2, 22, 32), wherein said compact pads transversely connect said first liner (1, 21, 31) and said second liner (2, 22, 32) so as to divide the intermediate space between the first liner (1, 21, 31) and the second liner (2, 22, 32) in at least two padding chambers and wherein said compact pads are joined to the first liner (1, 21, 31) and to the second liner (2, 22; 32) at respective offset positions, so that said at least two padding chambers are superimposed on each other along at least one portion, characterized in that when said padding element (10,20,30) is subjected to compression two of said compact adjacent pads are superimposed on each other along at least one portion.
Multi-layer cardboard material including - at least one first fibrous-material layer, which comprises a cellulose-containing base material, and - at least one second fibrous-material layer including a mixture of cellulose-containing material and fine material particles, wherein a material of origin for the fine material particles is coco peat and the fine material particles have a particle size < 0.5 mm, in particular < 0.3 mm. - at least one first fibrous-material layer, which comprises a cellulose-containing base material, and - at least one second fibrous-material layer including a mixture of cellulose-containing material and fine material particles, wherein a material of origin for the fine material particles is coco peat and the fine material particles have a particle size < 0.5 mm, in particular < 0.3 mm.
A method for manufacturing a plurality of light distribution members, comprising: preparing a joined body in which a plurality of transmissive plates are joined with a light shield part being interposed between adjacent ones of the transmissive plates, the light shield part comprising a layer composed of a metal, a multilayer film composed of metal, or a multilayer film composed of dielectric in which two or more types of dielectric are laminated; fixing a light-shielding frame to the joined body so as to surround an outer periphery of the joined body as seen from one direction, the light-shielding frame being made of light reflective ceramic; and cutting the joined body and the light-shielding frame perpendicularly to a surface of the joined body to which the light-shielding frame is fixed thereby obtaining the plurality of the light distribution members each having a plurality of transmissive pieces. preparing a joined body in which a plurality of transmissive plates are joined with a light shield part being interposed between adjacent ones of the transmissive plates, the light shield part comprising a layer composed of a metal, a multilayer film composed of metal, or a multilayer film composed of dielectric in which two or more types of dielectric are laminated; fixing a light-shielding frame to the joined body so as to surround an outer periphery of the joined body as seen from one direction, the light-shielding frame being made of light reflective ceramic; and cutting the joined body and the light-shielding frame perpendicularly to a surface of the joined body to which the light-shielding frame is fixed thereby obtaining the plurality of the light distribution members each having a plurality of transmissive pieces.
A lighting driver comprising: a primary power output adapted to electrically connect to a primary load of the lighting driver, wherein the primary load is a light source comprising a LED; an auxiliary power output a adapted to electrically connect to an auxiliary load of the lighting driver; a power supply for providing power to the primary power output and the auxiliary power output; and a driver controller adapted to: - determine whether there is an instantaneous change in a power consumption at the auxiliary power output caused by an auxiliary load connecting to or disconnecting from the auxiliary power output; and - in response to determining that said change in power consumption has occurred, perform at least one action in respect of the auxiliary load; wherein the at least one action performed by the driver controller comprises performing an authorization check for the auxiliary load and sending an alert signal if the check does not detect that the auxiliary load is authorized, wherein the alert signal controls an operation of the primary load so to indicate an alert. a primary power output adapted to electrically connect to a primary load of the lighting driver, wherein the primary load is a light source comprising a LED; an auxiliary power output a adapted to electrically connect to an auxiliary load of the lighting driver; a power supply for providing power to the primary power output and the auxiliary power output; and a driver controller adapted to: - determine whether there is an instantaneous change in a power consumption at the auxiliary power output caused by an auxiliary load connecting to or disconnecting from the auxiliary power output; and - in response to determining that said change in power consumption has occurred, perform at least one action in respect of the auxiliary load; - determine whether there is an instantaneous change in a power consumption at the auxiliary power output caused by an auxiliary load connecting to or disconnecting from the auxiliary power output; and - in response to determining that said change in power consumption has occurred, perform at least one action in respect of the auxiliary load; wherein the at least one action performed by the driver controller comprises performing an authorization check for the auxiliary load and sending an alert signal if the check does not detect that the auxiliary load is authorized, wherein the alert signal controls an operation of the primary load so to indicate an alert.
A system for converting kinetic energy from a body of fluid, having a current flowing in a direction, into rotational movement, comprising: at least one helical turbine rotatable about a longitudinal axis; at least one rotatable shaft operatively connected to the at least one helical turbine for transferring rotation of the at least one helical turbine into rotational movement of the at least one rotatable shaft; characterised in that the system further comprises a structure for supporting the at least one helical turbine and maintaining an operative angle between the longitudinal axis and the direction of the current in the range of about 27° to about 39°; and the at least one helical turbine further comprises at least one helicoid blade extending along a length thereof and having a pitch ratio in the range of about 0.33 to about 0.89. at least one helical turbine rotatable about a longitudinal axis; at least one rotatable shaft operatively connected to the at least one helical turbine for transferring rotation of the at least one helical turbine into rotational movement of the at least one rotatable shaft; characterised in that the system further comprises a structure for supporting the at least one helical turbine and maintaining an operative angle between the longitudinal axis and the direction of the current in the range of about 27° to about 39°; and the at least one helical turbine further comprises at least one helicoid blade extending along a length thereof and having a pitch ratio in the range of about 0.33 to about 0.89.