mhurhangee/patent-ind-claim-en huggingface dataset:
Secure cap that is dome-shaped and intended to snap-fit onto the top of an aerosol can , said cap being provided with a side opening for accessing a push button for operating a valve of the can, said cap further being provided at the top thereof with an axial opening for accessing an axial diffuser device which is mounted on an outlet tube of the valve aligned with an axis of rotation of the can, and said cap further being provided with a flap for protecting said side opening , which can be manoeuvred between a position for concealing the side opening and a position allowing free access to the side opening, characterised in that the cap made of two portions includes a base provided with a crown forming a lower portion of the dome and includes an attached lid being mounted on the base in alignment with the crown, forming an upper portion of the dome and including the axial opening ; the side opening being made at least in one portion in the lid and at most in one portion in the crown, the flap being inside the cap and mounted sliding in slides respectively lower in the base and upper in the lid.
A system for holding a tubular sleeve , notably a sleeve of an anchor pile or of a jacket leg (J), in a receiving structure (H; P), notably a foundation hole (H) or an anchor pile (P), during setting of a cement (C) or other binder introduced in a fluid state between the sleeve and the receiving structure (H; P), comprising - at least one expandable structure mounted on the sleeve , deformable from an inactive configuration allowing insertion of the sleeve in the receiving structure (H; P) to an active configuration immobilizing the sleeve in the receiving structure (H; P), the system being characterized by - at least one corresponding tool to be inserted in the sleeve , configured for acting on the expandable structure to cause it to pass from the inactive configuration to the active configuration, the operation of the tool resulting in the expandable structure contacting in the expanded state the inner surface of the receiving structure. - at least one expandable structure mounted on the sleeve , deformable from an inactive configuration allowing insertion of the sleeve in the receiving structure (H; P) to an active configuration immobilizing the sleeve in the receiving structure (H; P), the system being characterized by - at least one corresponding tool to be inserted in the sleeve , configured for acting on the expandable structure to cause it to pass from the inactive configuration to the active configuration, the operation of the tool resulting in the expandable structure contacting in the expanded state the inner surface of the receiving structure.
A hot blow forming method for an aluminum alloy sheet comprising: carrying out hot blow forming for the aluminum alloy sheet using a first metal mold, which is a female mold for forming having a protruding surface portion on an inside surface thereof, and a second metal mold for gas introduction, wherein, immediately prior to the hot blow forming, a temperature (T1) of the aluminum alloy sheet and a temperature (T2) of the first metal mold satisfy a relation (T1) - (T2) ≥ 30 °C, and the temperature (T2) is equal to or more than 400 °C, wherein a temperature (T3) of the second metal mold immediately prior to the hot blow forming is lower than a melting point of the aluminum alloy sheet and is equal to or higher than the temperature (T1), wherein, in the hot blow forming, the aluminum alloy sheet is brought into contact with at least a part of the protruding surface portion of the first metal mold within 30 seconds from a start of gas introduction from the second metal mold, wherein the aluminum alloy sheet is an aluminum alloy sheet comprising, by mass%, 1.1 to 6.5% Mg, 0.01 to 0.3% Fe, and a balance A1 and inevitable impurities, and wherein the temperature (T1) is equal to or lower than 550 °C. carrying out hot blow forming for the aluminum alloy sheet using a first metal mold, which is a female mold for forming having a protruding surface portion on an inside surface thereof, and a second metal mold for gas introduction, wherein, immediately prior to the hot blow forming, a temperature (T1) of the aluminum alloy sheet and a temperature (T2) of the first metal mold satisfy a relation (T1) - (T2) ≥ 30 °C, and the temperature (T2) is equal to or more than 400 °C, wherein a temperature (T3) of the second metal mold immediately prior to the hot blow forming is lower than a melting point of the aluminum alloy sheet and is equal to or higher than the temperature (T1), wherein, in the hot blow forming, the aluminum alloy sheet is brought into contact with at least a part of the protruding surface portion of the first metal mold within 30 seconds from a start of gas introduction from the second metal mold, wherein the aluminum alloy sheet is an aluminum alloy sheet comprising, by mass%, 1.1 to 6.5% Mg, 0.01 to 0.3% Fe, and a balance A1 and inevitable impurities, and wherein the temperature (T1) is equal to or lower than 550 °C.
A composition comprising per dosage unit: - red yeast rice having a titre in mevinolin comprised between 0.05 and 5% by weight; - polycosanols; - niacin; - from 500 to 1000 mg, preferably from 600 to 900 mg of sterols and/or stanols at least one pharmaceutically acceptable excipient. - red yeast rice having a titre in mevinolin comprised between 0.05 and 5% by weight; - polycosanols; - niacin; - from 500 to 1000 mg, preferably from 600 to 900 mg of sterols and/or stanols at least one pharmaceutically acceptable excipient.
A method of wireless communication at an apparatus, comprising: allocating a sub-band of frequencies for wireless communication to each of a plurality of devices (106A-106D), the sub-band of frequencies being associated with an uplink or downlink tone plan having a specific number of pilot tones based on the bandwidth of each sub-band, wherein a sub-band is allocated to a first device that is larger than a sub-band that is allocated to a second device of the plurality of devices (106A-106D) based on a priority of the first and second devices; providing the sub-band allocation to the devices (106A-106D); and processing a message, comprising encoding or decoding the message, according to one of the uplink or downlink tone plan associated with at least one of the allocated sub-bands. allocating a sub-band of frequencies for wireless communication to each of a plurality of devices (106A-106D), the sub-band of frequencies being associated with an uplink or downlink tone plan having a specific number of pilot tones based on the bandwidth of each sub-band, wherein a sub-band is allocated to a first device that is larger than a sub-band that is allocated to a second device of the plurality of devices (106A-106D) based on a priority of the first and second devices; providing the sub-band allocation to the devices (106A-106D); and processing a message, comprising encoding or decoding the message, according to one of the uplink or downlink tone plan associated with at least one of the allocated sub-bands.
A method for producing an articulated shaft component which can indirectly or directly connected via a functional surface to another articulated shaft component to form a shaft joint, in particular a constant velocity joint, comprising: - providing a blank, preferably a bar-shaped blank, and - transforming the blank into the articulated shaft component using hot forming and/or semi-hot forming, characterized in that cold calibration of the functional surface, in particular the entire functional surface, of the formed articulated shaft component will be omitted, characterized in that - to eliminate cold calibration during transforming , for example following hot forming and/or semi-hot forming, stamping or plasticizing actions of the articulated shaft component at a temperature below 120°C, preferably below 80°C and particularly preferably below 50°C is omitted, and/or - forming will be completed within a time interval shorter than 25 seconds and preferably shorter than 20 seconds and especially preferably shorter than 10 seconds. - providing a blank, preferably a bar-shaped blank, and - transforming the blank into the articulated shaft component using hot forming and/or semi-hot forming, characterized in that cold calibration of the functional surface, in particular the entire functional surface, of the formed articulated shaft component will be omitted, characterized in that - to eliminate cold calibration during transforming , for example following hot forming and/or semi-hot forming, stamping or plasticizing actions of the articulated shaft component at a temperature below 120°C, preferably below 80°C and particularly preferably below 50°C is omitted, and/or - forming will be completed within a time interval shorter than 25 seconds and preferably shorter than 20 seconds and especially preferably shorter than 10 seconds. - to eliminate cold calibration during transforming , for example following hot forming and/or semi-hot forming, stamping or plasticizing actions of the articulated shaft component at a temperature below 120°C, preferably below 80°C and particularly preferably below 50°C is omitted, and/or - forming will be completed within a time interval shorter than 25 seconds and preferably shorter than 20 seconds and especially preferably shorter than 10 seconds.
A composite cloth including a fabric sheet that has opposite first and second surfaces , said composite cloth being characterized by : said fabric sheet defining a plurality of micropores extending through said first and second surfaces ; and at least one functional film that is bonded to said first surface of said fabric sheet , that conforms said first surface of said fabric sheet and that is formed with a plurality of vacuum-molded protrusions extending into corresponding ones of said micropores , wherein said at least one functional film has at least one functional component, wherein said at least one functional film includes a fabric-sheet binding portion bonded to said first surface of said fabric sheet , and a plurality of protrusion-forming portions connected to said fabric-sheet binding portion and respectively defining said vacuum-molded protrusions , each of said vacuum-molded protrusions having a closed end distal to said first surface of said fabric sheet , and wherein each of said vacuum-molded protrusions has a first height (h1) that is measured from said closed end to said fabric-sheet binding portion , the first height (h1) being less than half of a minimum distance (d) between said first and second surfaces . said fabric sheet defining a plurality of micropores extending through said first and second surfaces ; and at least one functional film that is bonded to said first surface of said fabric sheet , that conforms said first surface of said fabric sheet and that is formed with a plurality of vacuum-molded protrusions extending into corresponding ones of said micropores , wherein said at least one functional film has at least one functional component, wherein said at least one functional film includes a fabric-sheet binding portion bonded to said first surface of said fabric sheet , and a plurality of protrusion-forming portions connected to said fabric-sheet binding portion and respectively defining said vacuum-molded protrusions , each of said vacuum-molded protrusions having a closed end distal to said first surface of said fabric sheet , and wherein each of said vacuum-molded protrusions has a first height (h1) that is measured from said closed end to said fabric-sheet binding portion , the first height (h1) being less than half of a minimum distance (d) between said first and second surfaces .
Structure of a machine for cooking snacks in a salt bath, comprising: - a load-bearing frame ; - a mixing drum , comprising a tubular body extending along a main axis (X), an inlet mouth , an outlet mouth and a feed screw , inside said tubular body extending between said inlet mouth and said outlet mouth , said feed screw being configured to force a plurality of elements (E) placed inside said tubular body to advance from said inlet mouth towards said outlet mouth ; - a containment jacket , which is configured to enclose said mixing drum and is integral with it; - a recirculation gap defined between said mixing drum and said containment jacket ; - a sieving zone defined within said containment jacket for separating said elements (E), inside said tubular body , from a bath of granular material (M) in which said elements (E) are immersed; - heating means configured to heat said bath of granular material (M); - motor drive means for continuously rotating said containment jacket and said mixing drum integral with it; - said mixing drum , said containment jacket and said recirculation gap being coaxial with respect to said main axis (X), at said inlet mouth being present transfer means configured to move said granular material (M) from said recirculation gap into said mixing drum , characterised in that said main axis (X) is tilted with respect to a reference horizontal plane (P), with said outlet mouth which is placed at a height above the ground (H1) which is greater than a corresponding height above the ground (H2) of said inlet mouth . - a load-bearing frame ; - a mixing drum , comprising a tubular body extending along a main axis (X), an inlet mouth , an outlet mouth and a feed screw , inside said tubular body extending between said inlet mouth and said outlet mouth , said feed screw being configured to force a plurality of elements (E) placed inside said tubular body to advance from said inlet mouth towards said outlet mouth ; - a containment jacket , which is configured to enclose said mixing drum and is integral with it; - a recirculation gap defined between said mixing drum and said containment jacket ; - a sieving zone defined within said containment jacket for separating said elements (E), inside said tubular body , from a bath of granular material (M) in which said elements (E) are immersed; - heating means configured to heat said bath of granular material (M); - motor drive means for continuously rotating said containment jacket and said mixing drum integral with it; - said mixing drum , said containment jacket and said recirculation gap being coaxial with respect to said main axis (X), at said inlet mouth being present transfer means configured to move said granular material (M) from said recirculation gap into said mixing drum , characterised in that said main axis (X) is tilted with respect to a reference horizontal plane (P), with said outlet mouth which is placed at a height above the ground (H1) which is greater than a corresponding height above the ground (H2) of said inlet mouth .
Packaging device for an implant comprising a coating, in particular for a tibial component of a knee joint prosthesis, which packaging device (10; 60; 70) comprises a first packaging part and a second packaging part , which in a packaging state define between them a receiving space , in the receiving space a receiving element arranged on one of the packaging parts , in which receiving element a first implant portion , in particular comprising the coating, can be accommodated, and in the receiving space a support element arranged at a distance from the receiving element , which support element can abut against a second implant portion , wherein the receiving element and/or the support element are made, at least in sections and preferably completely, of a material that is abrasion resistant for the coating of the implant or comprise an abrasion resistant coating, and wherein the receiving element and the support element are positioned opposite one another in the receiving space , for being placed against two averted implant portions of the implant, characterized in that the packaging device (10; 60; 70) comprises at least one biasing element that acts upon the support element with a biasing force directed at the receiving element , and in that the receiving element and the support element can be moved away from one another against the biasing force for accommodating the implant .
A dilator configured to dilate tissue of a corpora cavernosum of a penis, comprising: a handle ; a stem portion ; an intermediate portion connecting the handle and the stem portion ; and a dilation portion attached at a distal end of the stem portion and having a larger diameter than the stem portion, wherein the dilation portion includes an exterior surface defining a groove having a groove depth that is configured to leave a section of tissue in the corpora cavernosum undisturbed and un-dilated to allow for vascularization of the section of tissue in aid of an erection, characterized in that the groove is formed to be deeper along a proximal portion of the dilation portion and shallower along a distal portion of the dilation portion . a handle ; a stem portion ; an intermediate portion connecting the handle and the stem portion ; and a dilation portion attached at a distal end of the stem portion and having a larger diameter than the stem portion, wherein the dilation portion includes an exterior surface defining a groove having a groove depth that is configured to leave a section of tissue in the corpora cavernosum undisturbed and un-dilated to allow for vascularization of the section of tissue in aid of an erection, characterized in that the groove is formed to be deeper along a proximal portion of the dilation portion and shallower along a distal portion of the dilation portion .
A transaction card , comprising: a housing component having a first surface and a second surface opposite the first surface , wherein the periphery of the first surface extends above a central portion of the first surface so as to define a recess for receiving an inlay component ; and an inlay component configured to fit within the recess defined by the periphery of the first surface of the housing component , the inlay component comprising: a fabric material ; and a backer layer configured to support the fabric material ; the inlay component being fitted within the recess defined by the periphery of the first surface of the housing component and joined to the first surface of the housing component via the backer layer . a housing component having a first surface and a second surface opposite the first surface , wherein the periphery of the first surface extends above a central portion of the first surface so as to define a recess for receiving an inlay component ; and an inlay component configured to fit within the recess defined by the periphery of the first surface of the housing component , the inlay component comprising: a fabric material ; and a backer layer configured to support the fabric material ; a fabric material ; and a backer layer configured to support the fabric material ;
An apparatus comprising a first optical repeater having first and second optical input ports (IN a , IN b ) and first and second optical output ports (OUT a , OUT b ), the first optical repeater comprising: a first optical path (340 a ) between the first input port and the first output port, the first optical path including a first optical amplifier (160 a ) configured to amplify optical signals transmitted in a first direction; a second optical path (340 b ) between the second input port and the second output port, the second optical path including a second optical amplifier (160 b ) configured to amplify optical signals transmitted in a second direction, the second direction being opposite to the first direction; and an optical circuit having a plurality of optical pathways therethrough that connect the first and second optical paths, said plurality including a first optical pathway (312/610/316) that connects an input of the first optical amplifier and an input of the second optical amplifier, the first optical pathway including a first narrow band-pass optical filter , characterized in that the first optical pathway (312/610/316) is configured to: direct light traveling in the first direction at the first optical input port toward the second optical output port, through the first narrow band-pass optical filter and through the second optical amplifier; and direct light traveling in the second direction at the second optical input port toward the first optical output port, through the first narrow band-pass optical filter and through the first optical amplifier. a first optical path (340 a ) between the first input port and the first output port, the first optical path including a first optical amplifier (160 a ) configured to amplify optical signals transmitted in a first direction; a second optical path (340 b ) between the second input port and the second output port, the second optical path including a second optical amplifier (160 b ) configured to amplify optical signals transmitted in a second direction, the second direction being opposite to the first direction; and an optical circuit having a plurality of optical pathways therethrough that connect the first and second optical paths, said plurality including a first optical pathway (312/610/316) that connects an input of the first optical amplifier and an input of the second optical amplifier, the first optical pathway including a first narrow band-pass optical filter , direct light traveling in the first direction at the first optical input port toward the second optical output port, through the first narrow band-pass optical filter and through the second optical amplifier; and direct light traveling in the second direction at the second optical input port toward the first optical output port, through the first narrow band-pass optical filter and through the first optical amplifier.
Assembly consisting of a structural air guide and adaptive air guiding modules, the structural air guide being intended to be incorporated at the front of a vehicle in an engine bay of said vehicle, behind at least one ventilation opening of a front facade of the vehicle, the air guide being in the form of an essentially rectangular structure comprising in particular a front face , a rear face and an upper rim , said structure incorporating at least one radiator and comprising means for attaching to the structure of the vehicle, the front face comprising zones for attaching lower and upper adaptive air guiding modules that are intended to convey the air from ventilation openings to said front face , the rear face forming a recess for receiving a cooling kit comprising at least said radiator , the kit being equipped with sealing means that cooperate with the receiving recess, the upper rim comprising at least one zone for attaching equipment modules of the technical front face, the adaptive air guiding module consists of at least one rigid box attached to the structural air guide , a peripheral flexible part provided at the front of the rigid box being applied in a sealing manner to the front bumper of the vehicle, the front face of the air guide comprising through-openings of various shapes and sizes, characterized in that the upper adaptive air guiding module comprises rigid boxes intended to abut against the openings and separated by a rigid bridge intended to allow space for a connecting leg of the equipment module .