mhurhangee/patent-ind-claim-en huggingface dataset:
Adhesive fascial tape, characterized in that it comprises a flat fabric with weft and warp , forming an openwork structure with a plain, twill or satin weave, broken or crossed both in weft and in warp with a lower layer of adhesive, wherein the yarn forming the fabric are filament yarns clustered in plies, cabled or as cores comprising natural and/or synthetic fibers, wherein the yarns of the flat fabric with weft and warp form an openwork structure with a plain, twill or satin weave of at least 3 and up to 10, the weft yarns of the structure of the tape have a density of 1 up to 35 picks/cm and the warp yarns of the structure of the tape have a density of 1 up to 40 yarns/cm, and wherein the natural and/or synthetic fibers forming the fabric are chosen from the group comprising cotton, nylon, polyester, polypropylene and elastane, or combinations thereof.
Apparatus for feeding bars to a machine tool, comprising: - a rotary drum provided with a plurality of guide units distributed circumferentially and extending parallel to a longitudinal axis (A L ) of said drum , - each guide unit consisting of two parts that are reciprocally movable and openable, by means of a respective lever placed at one end, to receive inside a respective bar to be advanced to said machine tool, - an actuator element configured to act, each time, directly on a specific lever to open the corresponding guide unit , characterised by : - a support assembly comprising a plurality of support bars suitable for receiving and supporting a plurality of bars , to be fed, in a position adjacent to said drum , - a loading unit (G L ) comprising a lifting device that is movable from a lower position (P1) to an upper position (P2) and configured to pick up one or more bars from said support assembly and lift up said one or more bars to said upper position (P2), said loading unit (G L ) further comprising a selector unit (G S ) configured to select a single bar at a time when said lifting device is in said upper position (P2) so as to achieve the transfer of said bar to a respective guide unit , wherein - said selector unit (G S ) comprising resting plates that project vertically upwards and are connected to the ends, placed nearer said drum , of respective support bars of said support assembly , said resting plates being shaped for separating a bar - which is nearer said drum - from the remaining bars that rest on said lifting device . - a rotary drum provided with a plurality of guide units distributed circumferentially and extending parallel to a longitudinal axis (A L ) of said drum , - each guide unit consisting of two parts that are reciprocally movable and openable, by means of a respective lever placed at one end, to receive inside a respective bar to be advanced to said machine tool, - an actuator element configured to act, each time, directly on a specific lever to open the corresponding guide unit , - a support assembly comprising a plurality of support bars suitable for receiving and supporting a plurality of bars , to be fed, in a position adjacent to said drum , - a loading unit (G L ) comprising a lifting device that is movable from a lower position (P1) to an upper position (P2) and configured to pick up one or more bars from said support assembly and lift up said one or more bars to said upper position (P2), said loading unit (G L ) further comprising a selector unit (G S ) configured to select a single bar at a time when said lifting device is in said upper position (P2) so as to achieve the transfer of said bar to a respective guide unit , wherein - said selector unit (G S ) comprising resting plates that project vertically upwards and are connected to the ends, placed nearer said drum , of respective support bars of said support assembly , said resting plates being shaped for separating a bar - which is nearer said drum - from the remaining bars that rest on said lifting device .
Ophthalmological apparatus for treating eye tissue , comprising a laser source that is set up to produce a pulsed laser beam (L); a scanner system that is set up to direct the pulsed laser beam (L) at a treatment speed in the eye tissue along a scanning treatment line (sb), and a first scanning apparatus which is connected upstream of the scanner system and is set up to deflect the pulsed laser beam (L), for producing a first additional scanning movement component (sm), in a first scanning direction (m) at a first scanning speed that is considerably higher as compared to the treatment speed, with the result that the first additional scanning movement component (sm) is superposed on the scanning treatment line (sb), characterized by a second scanning apparatus which is connected upstream of the scanner system and is set up to deflect the pulsed laser beam (L), for producing a second additional scanning movement component (sf), in a second scanning direction (f), which is at an angle to the first scanning direction (m) of the first additional scanning movement component (sm), at a second scanning speed that is considerably higher as compared to the first scanning speed, with the result that the second additional scanning movement component (sf) is superposed on the first additional scanning movement component (sm) and a scanning region (sa) is treated by the deflection of the pulsed laser beam (L) with the first additional scanning movement component (sm) in the first scanning direction (m) and the superposed, second additional scanning movement component (sf) in the second scanning direction (f), and a circuit which is set up to control the scanner system in synchronized fashion with the first scanning apparatus and the second scanning apparatus such that the scanning region (sa) is traveled by the scanner system along the scanning treatment line (sb) and a tissue volume treatment is effected in the eye tissue .
Process for colouring a base cosmetic composition, comprising the step consisting in producing, on at least one first zone and one second zone, which are different, at the surface of said composition, two printings of at least one ink originating from an inkjet printer, the base composition being a pulverulent in compact powder form, the at least one ink being an aqueous ink comprising a weight concentration of at least 50% of water and having a viscosity ranging from 1 mPa.s to 500 mPa.s at 25°C, the base composition and the ink being such that the time needed for the complete penetration, at ambient temperature of 20°C and under atmospheric pressure, into the base composition of an amount of 20 μl of water deposited at its surface is less than 30 s and such that the time needed for the complete penetration into the base composition of the same amount, 20 μl, of ink deposited at its surface is less than 15 s, wherein the ink is deposited in a sufficient amount so as to diffuse through a depth of the base composition greater than or equal to 1 mm, for each zone.
Method for the recovery of spent refractory material in steel plants, comprising the following steps: a) receiving the refractory material coming from the demolition of refractory material linings in the containers used in steel making, treatment and manufacturing processes, which refractory material includes basic refractory parts comprising magnesic or dolomite material, b) sieving and separating the refractory material, c) collecting the refractory material, characterized in that step b) provides the following sub-steps: b1) first sieving of the material into at least two fractions on the basis of a first specific threshold size value, such to identify a fine fraction and a coarse fraction, b2) magnetic separation of the fine fraction, b3) magnetic separation of the coarse fraction, b4) second sieving of the fine fraction into three sub-fractions (A, B, C) on the basis of two second specific threshold size values, there being provided a step b5), following step b4), related to identifying the two sub-fractions (B, C) with greater size, a step b6) being provided related to a nonmagnetic separation of the sub-fractions with greater size (B, C), intended to separate nonmagnetic metal parts with respect to fine parts, step b3) providing to separate the coarse fraction in at least one magnetic metal part, at least one nonmagnetic metal part and at least one refractory part, said coarse fraction being at least partially divided into small granules, the fine parts being used for the production of granulate materials. a) receiving the refractory material coming from the demolition of refractory material linings in the containers used in steel making, treatment and manufacturing processes, which refractory material includes basic refractory parts comprising magnesic or dolomite material, b) sieving and separating the refractory material, c) collecting the refractory material, b1) first sieving of the material into at least two fractions on the basis of a first specific threshold size value, such to identify a fine fraction and a coarse fraction, b2) magnetic separation of the fine fraction, b3) magnetic separation of the coarse fraction, b4) second sieving of the fine fraction into three sub-fractions (A, B, C) on the basis of two second specific threshold size values, there being provided a step b5), following step b4), related to identifying the two sub-fractions (B, C) with greater size, a step b6) being provided related to a nonmagnetic separation of the sub-fractions with greater size (B, C), intended to separate nonmagnetic metal parts with respect to fine parts, step b3) providing to separate the coarse fraction in at least one magnetic metal part, at least one nonmagnetic metal part and at least one refractory part, said coarse fraction being at least partially divided into small granules, the fine parts being used for the production of granulate materials.
An inverted microscope provided with a microscope main body , a stage that is supported by the microscope main body , and an observation optical system that allows observing a sample placed on the stage from underneath, wherein the microscope main body , in which an optical device can be attached between an objective lens and a tube lens which constitute the observation optical system includes a lower part structure to which the tube lens is attached and the optical device is configured to be attached; and an upper part structure in which the plurality of stage supporting parts (11b; 11c), configured to support the stage , and a beam part are integrally formed, wherein the a beam part (1d; 11d) connects, in a manner of locating between the tube lens and the objective lens , at least a pair of the plurality of stage supporting parts (1b, 1c; 11b, 11c) at front and back sides; an attachment area formed in the lower part structure in a lower side area of the beam part (1d; 11d) to attach the optical device to the attachment area; and a pair of fitting grooves (1b1, 1c1) provided at front and back sides in the attachment area to attach the optical device to the attachment area, characterized in that the upper part structure is fixed to the lower part structure by screws inserted through long holes (11b4, 11c4), provided in the upper part structure , in internal threads (10b4, 10c4), provided in the lower part structure , in a manner enabling a sliding adjustment so that an optical axis (O1) of the attached optical device and an optical axis of the objective lens match. an attachment area formed in the lower part structure in a lower side area of the beam part (1d; 11d) to attach the optical device to the attachment area; and a pair of fitting grooves (1b1, 1c1) provided at front and back sides in the attachment area to attach the optical device to the attachment area,
An installation for fitting to a hot water store comprising: a cold water feed and a hot water discharge , a cold water inlet for connection to the hot water store from the cold water feed and a hot water outlet pipe or passage for connection between the hot water store and the hot water discharge, a bypass circuit comprising a bypass line having a circulating pump and connecting between the cold water feed and the hot water discharge, an electric heater provided within the three-way junction where the bypass line, the hot water outlet pipe or passage and the hot water discharge meet so that, in use, water leaving the installation through the hot water discharge may flow in either direction in the cold water inlet and the hot water pipe or passage, and water withdrawn at the hot water discharge must flow through the electric heater whether it flows from the hot water store and/or from the bypass circuit, wherein the circulating pump and the electric heater are controlled to achieve a preset/desired temperature at the hot water discharge, according to the temperature at the hot water outlet pipe or passage from the hot water store and that in the bypass circuit, in order to optimise the use of energy in the installation and eventually to boost the temperature of the water using the electric heater. a cold water feed and a hot water discharge , a cold water inlet for connection to the hot water store from the cold water feed and a hot water outlet pipe or passage for connection between the hot water store and the hot water discharge, a bypass circuit comprising a bypass line having a circulating pump and connecting between the cold water feed and the hot water discharge, an electric heater provided within the three-way junction where the bypass line, the hot water outlet pipe or passage and the hot water discharge meet so that, in use, water leaving the installation through the hot water discharge may flow in either direction in the cold water inlet and the hot water pipe or passage, and water withdrawn at the hot water discharge must flow through the electric heater whether it flows from the hot water store and/or from the bypass circuit, wherein the circulating pump and the electric heater are controlled to achieve a preset/desired temperature at the hot water discharge, according to the temperature at the hot water outlet pipe or passage from the hot water store and that in the bypass circuit, in order to optimise the use of energy in the installation and eventually to boost the temperature of the water using the electric heater.
A method for loading at least one powder substance into recesses provided at a stent (S) surface, the method comprising: - applying compression to said at least one powder substance to thereby form tablets insertable into said recesses , - loading at least one additional substance into said recesses , by partially filling said recesses with said at least one additional substance, and - inserting said tablets of said at least one substance into said recesses partially filled with said at least one additional substance , and wherein - said at least one substance includes an active principle with anti-inflammatory activity mixed with at least one or more second excipients selected from linear or branched saturated fatty acids comprising a number of carbon atoms from 4 to 18 or a mixture thereof, - said at least one additional substance includes an active principle with anti-proliferative activity mixed with at least one or more first excipients selected from linear or branched saturated fatty acids comprising a number of carbon atoms from 16 to 34 or a mixture thereof, and wherein said at least one or more first excipients or a mixture thereof has/have a melting temperature higher than the melting temperature of said at least one or more second excipients or a mixture thereof. - applying compression to said at least one powder substance to thereby form tablets insertable into said recesses , - loading at least one additional substance into said recesses , by partially filling said recesses with said at least one additional substance, and - inserting said tablets of said at least one substance into said recesses partially filled with said at least one additional substance , - said at least one substance includes an active principle with anti-inflammatory activity mixed with at least one or more second excipients selected from linear or branched saturated fatty acids comprising a number of carbon atoms from 4 to 18 or a mixture thereof, - said at least one additional substance includes an active principle with anti-proliferative activity mixed with at least one or more first excipients selected from linear or branched saturated fatty acids comprising a number of carbon atoms from 16 to 34 or a mixture thereof,
A method for producing a joined structure, the method comprising: a reflow step of heating a first member and a solder material while keeping them in contact with each other in a reflow chamber to melt a solder alloy constituting the solder material, the reflow step comprising: a first reflow step of keeping the condition that an atmosphere in the reflow chamber is reduced to a first pressure P 1 from the atmospheric pressure before the solder alloy is molten, and then melting the solder alloy; and a second reflow step of, after the first reflow step, melting the solder alloy with the atmosphere in the reflow chamber reduced to a second pressure P 2 lower than the first pressure P 1 . a reflow step of heating a first member and a solder material while keeping them in contact with each other in a reflow chamber to melt a solder alloy constituting the solder material, the reflow step comprising: a first reflow step of keeping the condition that an atmosphere in the reflow chamber is reduced to a first pressure P 1 from the atmospheric pressure before the solder alloy is molten, and then melting the solder alloy; and a second reflow step of, after the first reflow step, melting the solder alloy with the atmosphere in the reflow chamber reduced to a second pressure P 2 lower than the first pressure P 1 . a first reflow step of keeping the condition that an atmosphere in the reflow chamber is reduced to a first pressure P 1 from the atmospheric pressure before the solder alloy is molten, and then melting the solder alloy; and a second reflow step of, after the first reflow step, melting the solder alloy with the atmosphere in the reflow chamber reduced to a second pressure P 2 lower than the first pressure P 1 .
Multi-stage flow distribution plate group for heat exchanger, comprising at least two pairs of unit plate groups, each pair of the unit plate group including a first plate and a second plate that are stacked, wherein both the first plate and the second plate include a main panel and a surrounding baffle , and the main panel includes a shunt area , a main heat exchanging area and a confluence area , wherein shunt ribs are set between the shunt area and the main heat exchanging area as well as between the main heat exchanging area and the confluence area , the two shunt ribs being used to evenly distribute the medium flowing from the shunt area into the main heat exchanging area and the medium flowing from the main heat exchanging area into the confluence area , characterized in that the shunt area is provided with ridges I that are straight, arranged side by side so that a valley I is formed between each pair of neighboring ridges I , and oriented in the same first direction so that the ridges I that meet with the shunt rib form with the shunt rib same angle α, that the main heat exchanging area , which is delimited by the two shunt ribs and the main heat exchanging area sides provided by the baffle , is provided with ridges II that are straight end extend from one of the sides of the main heat exchanging area to either one of the shunt ribs or the other side of the main heat exchanging area , the ridges being arranged side by side so that a valley II is formed between each pair of neighboring ridges II , and oriented in the same second direction so that the ridges II that meet with the shunt rib form with the shunt rib same angle β, and that the confluence area is provided with ridges III that are straight, arranged side by side so that a valley III is formed between each pair of neighboring ridges III , and oriented in the same third direction so that the ridges III that meet with the shunt rib form with the shunt rib same angle γ, wherein the angle α is not equal to β, and the angle β is not equal to γ.
Use of a monoclonal antibody specifically binding to BoNT/E-cleaved SNAP-25, wherein the antibody comprises the complementarity determining regions (CDRs) of CDR-L1 as shown in SEQ ID NO. 15, CDR-L2 as shown in SEQ ID NO. 16, CDR-L3 as shown in SEQ ID NO. 17, CDR-H1 as shown in SEQ ID NO. 18, CDR-H2 as shown in SEQ ID NO. 19 and CDR-H3 as shown in SEQ ID NO. 20, comprised by the monoclonal antibody produced by hybridoma cell line pCNEI 32-7-1, 3614-000 deposited on December 17, 2014, at DSMZ - Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH, Inhoffenstraße 7 B, 38124 Braunschweig, Germany, under the accession number DSM ACC3261, for in vitro assays for measuring the biological activity of BoNT/E.
Access door for a refrigerated cabinet, comprising a multi-walled plastic door construction of an at least substantially sheet-like first wall and an at least substantially plane-parallel second wall , which walls each comprise at least substantially all around an edge part with which the two walls are mutually connected, wherein at least one of the two walls comprises a central part which lies offset relative to the edge part and wherein the central part and the edge part are connected-by a bridge part which bounds all around a cavity between the two walls, wherein the door construction has on at least one of its sides a mounting section for mounting an adjusting member thereon in order to enable adjustment of the door construction therewith in the refrigerated cabinet between a position closing the refrigerated cabinet and an open position, characterized in that the bridge part comprises a primary bridge part section which is adjacent to the mounting section and extends at a first angle from the edge part, and that the bridge part comprises a secondary bridge part section which extends at a second angle from the edge part, wherein the second angle is smaller than the first angle.
A composite manufacturing apparatus comprising: a width determining mechanism having a body and a gas passage , the body having a path configured to allow a tape material including fibers impregnated with a resin to pass therethrough, the path having a bottom surface and a pair of wall surfaces , the pair of the wall surfaces forming a gap that gradually decreases, the gas passage being provided inside the body and formed by the bottom surface having a plurality of through holes, and being in communication with the plurality of through holes ; and a gas supplier configured to supply gas to the gas passage . a width determining mechanism having a body and a gas passage , the body having a path configured to allow a tape material including fibers impregnated with a resin to pass therethrough, the path having a bottom surface and a pair of wall surfaces , the pair of the wall surfaces forming a gap that gradually decreases, the gas passage being provided inside the body and formed by the bottom surface having a plurality of through holes, and being in communication with the plurality of through holes ; and a gas supplier configured to supply gas to the gas passage .