mhurhangee/ep-ind-claims huggingface dataset:
Thermoforming assembly for making containers, comprising: feeding devices configured to move a continuous strip-shaped semi-finished product along a forwarding path; at least one forming mould arranged along the forwarding path and defining a forming cavity delimited by a base wall, a first pair of respectively opposed side walls, and a second pair of respectively opposed side walls (29a, 29b); heating devices configured to operate on the strip-shaped semi-finished product near the forming mould; forming devices operatively associated with the forming mould and configured to conform the strip-shaped semi-finished product against the base wall and the side walls (28, 29a, 29b) defining the forming cavity; characterized in that at least one of the side walls (29a, 29b) belonging to the second pair is a movable wall, positionable towards and away from the other side wall belonging to the second pair, to vary the dimension of the forming cavity. feeding devices configured to move a continuous strip-shaped semi-finished product along a forwarding path; at least one forming mould arranged along the forwarding path and defining a forming cavity delimited by a base wall, a first pair of respectively opposed side walls, and a second pair of respectively opposed side walls (29a, 29b); heating devices configured to operate on the strip-shaped semi-finished product near the forming mould; forming devices operatively associated with the forming mould and configured to conform the strip-shaped semi-finished product against the base wall and the side walls (28, 29a, 29b) defining the forming cavity; characterized in that at least one of the side walls (29a, 29b) belonging to the second pair is a movable wall, positionable towards and away from the other side wall belonging to the second pair, to vary the dimension of the forming cavity.
A process for the manufacture of quark or sour cream, comprising subjecting a milk base of at least 10,000 liter milk to mesophilic fermentation at a temperature in the range of 25°C - 35°C with a starter comprising a mesophilic culture and a weakly post-acidifying thermophilic culture until a desired pH value in the range of 4.0 and 5.0 is reached, wherein the weakly post-acidifying thermophilic culture consists of Streptococcus thermophilus strain CBS140557, Streptococcus thermophilus strain CBS140559 or Streptococcus thermophilus strain CBS140561.
A combustor for a gas turbine engine comprising: a support shell (68, 70); a forward liner panel (72A, 72B) mounted to the support shell (68, 70) via a multiple of studs, the forward liner panel (72, 74) including an aft circumferential rail that extends from a cold side of the forward liner panel (72A, 72B); an aft liner panel (74A, 74B) mounted to the support shell (68, 70) via a multiple of studs, the aft liner panel (74A, 74B) including a forward circumferential rail that extends from a cold side of the second liner panel (74A, 74B) adjacent to the aft circumferential rail to form an interface passage; and at least one heat transfer feature; characterised in that: the at least one heat transfer feature is within the interface passage and includes a first heat transfer feature, that extends from a surface (150, 160) of the aft circumferential rail that faces the interface passage, and a second heat transfer feature that extends from a surface (150, 160) of the forward circumferential rail that faces the interface passage, wherein the at least one first heat transfer feature abuts the at least one second heat transfer feature across the interface passage, the interface passage is formed where the aft circumferential rail of the forward liner panel (72A, 72B) abuts the forward circumferential rail of the aft liner panel (74A, 74B), and the interface passage is oriented at an angle P between about 20-80 degrees with respect to a hot side of the aft liner panel (74A, 74B). a support shell (68, 70); a forward liner panel (72A, 72B) mounted to the support shell (68, 70) via a multiple of studs, the forward liner panel (72, 74) including an aft circumferential rail that extends from a cold side of the forward liner panel (72A, 72B); an aft liner panel (74A, 74B) mounted to the support shell (68, 70) via a multiple of studs, the aft liner panel (74A, 74B) including a forward circumferential rail that extends from a cold side of the second liner panel (74A, 74B) adjacent to the aft circumferential rail to form an interface passage; and at least one heat transfer feature; characterised in that: the at least one heat transfer feature is within the interface passage and includes a first heat transfer feature, that extends from a surface (150, 160) of the aft circumferential rail that faces the interface passage, and a second heat transfer feature that extends from a surface (150, 160) of the forward circumferential rail that faces the interface passage, wherein the at least one first heat transfer feature abuts the at least one second heat transfer feature across the interface passage, the interface passage is formed where the aft circumferential rail of the forward liner panel (72A, 72B) abuts the forward circumferential rail of the aft liner panel (74A, 74B), and the interface passage is oriented at an angle P between about 20-80 degrees with respect to a hot side of the aft liner panel (74A, 74B).
An apparatus comprising: a sensor configured to sense electromagnetic radiation wherein the sensor comprises: - a substrate, - a sensing portion comprising a pyroelectric material positioned on the substrate configured to be responsive to incident electromagnetic radiation, - a layer of graphene overlying the pyroelectric material, wherein the layer of graphene extends between a source contact and a drain contact, and is configured to convert the response of the pyroelectric material into an output signal characterized in that at least one of the contacts (9, 11) is formed into at least one antenna (21, 31) configured to focus the electromagnetic radiation onto the sensor and create localised heating of the sensing portion. - a substrate, - a sensing portion comprising a pyroelectric material positioned on the substrate configured to be responsive to incident electromagnetic radiation, - a layer of graphene overlying the pyroelectric material, wherein the layer of graphene extends between a source contact and a drain contact, and is configured to convert the response of the pyroelectric material into an output signal
A vacuum heat-insulating material for a dwelling wall, comprising: an outer cover material; and an inner member (12, 13) which is sealed in a tightly closed and decompressed state on an inside of the outer cover material, wherein the inner member (12, 13) is configured of a material which does not generate hydrogen in a case of coming into contact with moisture of liquid, wherein the inner member (12, 13) included in the vacuum heat-insulating material includes a core material having heat-insulating properties and an adsorbent which is capable of adsorbing gas on the inside of the outer cover material, characterized in that a ratio of a sectional area of a surface vertical to a thickness direction of the adsorbent to a thickness of the adsorbent is within a range of T2:CS=1:100 to 1:250. an outer cover material; and an inner member (12, 13) which is sealed in a tightly closed and decompressed state on an inside of the outer cover material, wherein the inner member (12, 13) is configured of a material which does not generate hydrogen in a case of coming into contact with moisture of liquid, wherein the inner member (12, 13) included in the vacuum heat-insulating material includes a core material having heat-insulating properties and an adsorbent which is capable of adsorbing gas on the inside of the outer cover material, characterized in that a ratio of a sectional area of a surface vertical to a thickness direction of the adsorbent to a thickness of the adsorbent is within a range of T2:CS=1:100 to 1:250.
A pneumatic tire comprising a tread portion provided with a tread groove, a pair of sidewall portions, a pair of bead portions, a carcass extending between the bead portions through the tread portion and sidewall portions, and a tread reinforcing band disposed radially outside the carcass in the tread portion as the radially outermost reinforcing cord layer composed of a plurality of reinforcing cords laid at an angle of not more than 5 degrees with respect to the tire circumferential direction, wherein each of the reinforcing cords is composed of a plural number N of steel filaments twisted together into a 1xN open twist structure, characterized in that the shortest distance between the bottom of the tread groove and the underlying reinforcing cords is in a range of from 0.5 to 2.0 mm; the elongation percentage of the reinforcing cord at a cord load of 50N is in a range of from 0.5 to 1.5 %.
A computer-implemented method, comprising: receiving seismic data acquired in a seismic survey; constructing a three-dimensional representation of the acquired seismic data using an iterative interpolation process wherein the iterative interpolation process comprises: determining a measurement function representing the acquired seismic data, the measurement function comprising basis functions; selecting a new basis function; applying a ghosting operator to the new basis function to generate a transformed basis function; and adding the transformed basis function to the existing measurement function to form a new measurement function; and based on at least one criterion, removing a noise from the three-dimensional representation of the acquired seismic data, characterized in that the noise comprises seismic interference signals, and that the method further comprises: at each iteration of the interpolation process, comparing a wavenumber of the basis function to be added to the measurement function to a wavenumber associated with the noise; and adding the basis function to the measurement function if the wavenumber of the basis function is not associated with the noise. receiving seismic data acquired in a seismic survey; constructing a three-dimensional representation of the acquired seismic data using an iterative interpolation process wherein the iterative interpolation process comprises: determining a measurement function representing the acquired seismic data, the measurement function comprising basis functions; selecting a new basis function; applying a ghosting operator to the new basis function to generate a transformed basis function; and adding the transformed basis function to the existing measurement function to form a new measurement function; and determining a measurement function representing the acquired seismic data, the measurement function comprising basis functions; selecting a new basis function; applying a ghosting operator to the new basis function to generate a transformed basis function; and adding the transformed basis function to the existing measurement function to form a new measurement function; and based on at least one criterion, removing a noise from the three-dimensional representation of the acquired seismic data, characterized in that the noise comprises seismic interference signals, and that the method further comprises: at each iteration of the interpolation process, comparing a wavenumber of the basis function to be added to the measurement function to a wavenumber associated with the noise; and adding the basis function to the measurement function if the wavenumber of the basis function is not associated with the noise. at each iteration of the interpolation process, comparing a wavenumber of the basis function to be added to the measurement function to a wavenumber associated with the noise; and adding the basis function to the measurement function if the wavenumber of the basis function is not associated with the noise.
A rolled tissue product comprising a though-air dried multi-ply tissue web having a basis weight of greater than about 40 gsm, the web spirally wound into a roll, the wound roll having a Kershaw roll firmness of less than about 9 mm and a roll bulk of greater than about 15 cc/g, wherein the plies are mechanically attached together through fiber entanglement by crimping.
An auger snow blower comprising an auger housing, right and left forward rotating augers configured, at the time of snow removal, to rotate from an upper side to a lower front side and right and left backward rotating augers configured to rotate in a direction reverse to the right and left forward rotating augers, wherein the forward and backward rotating augers (41, 42) are disposed on a same axis and aligned in the width direction inside the auger housing, the right and left backward rotating augers being separately positioned on both sides of the right and left forward rotating augers, and wherein a blower housing is disposed at a rear portion of the auger housing and positioned at the center of the width direction of the auger housing, the blower housing having a width (Wb) extending in the width direction of the auger housing, and a blower is disposed inside the blower housing, characterized in that the right and left forward rotating augers are positioned in the entire range of width (Wb) of the blower housing, and the right and left backward rotating augers are positioned only at a more outer side than the width (Wb) of the blower housing in the width direction, wherein the left and right backward rotating augers have an axial width (Lb) smaller than an axial width (La) of the left and right forward rotating augers.
A method of measuring line profile asymmetries in microelectronic devices, the method comprising the steps of: directing light at an array of microelectronic features of a microelectronic device; detecting light scattered back from the array comprising one or more features selected from the group consisting of one or more angles of reflection and one or more wavelengths; and comparing one or more characteristics of the back-scattered light by performing an operation comprising either examining data from complementary angles of reflection or performing a model comparison against a library of asymmetric line profiles. directing light at an array of microelectronic features of a microelectronic device; detecting light scattered back from the array comprising one or more features selected from the group consisting of one or more angles of reflection and one or more wavelengths; and comparing one or more characteristics of the back-scattered light by performing an operation comprising either examining data from complementary angles of reflection or performing a model comparison against a library of asymmetric line profiles.
A molten metal pouring nozzle to be arranged between a molten metal receiving portion and a mold of a horizontal continuous casting device, the molten metal pouring nozzle comprising: a main body portion having at least one molten metal passage and made of a fire-resistant substance; and a sleeve fitted in the molten metal passage of the main body portion, the sleeve being made of a material having a heat conductivity of 10 to 30 W/(m * °C) which does not react with the molten metal, wherein a material of the sleeve is any one of silicon nitride, silicon carbide, boron nitride, and graphite, wherein the sleeve is generally cylindrical in shape, the outer diameter being set to a size corresponding to the diameter of the molten metal passage of the main body portion, wherein at the molten metal inlet side periphery of the cylindrical portion, a flange portion protruded outwardly is formed, wherein at the molten metal inlet side end face of the main body portion, a dented stepped portion corresponding to the thickness of the flange portion is formed, and wherein when the sleeve is inserted from the inlet side of the molten metal passage of the main body portion, the flange portion of the sleeve is engaged with the stepped portion of the main body portion and, as a result, the inlet side end face of the molten metal pouring nozzle forms a continuous single flat surface of two members, so that the molten metal flowing toward the mold causes the flange portion to be pressed against the stepped portion, the sleeve thereby being in a pulling-out prevented state. a main body portion having at least one molten metal passage and made of a fire-resistant substance; and a sleeve fitted in the molten metal passage of the main body portion, the sleeve being made of a material having a heat conductivity of 10 to 30 W/(m * °C) which does not react with the molten metal, wherein a material of the sleeve is any one of silicon nitride, silicon carbide, boron nitride, and graphite, wherein the sleeve is generally cylindrical in shape, the outer diameter being set to a size corresponding to the diameter of the molten metal passage of the main body portion, wherein at the molten metal inlet side periphery of the cylindrical portion, a flange portion protruded outwardly is formed, wherein at the molten metal inlet side end face of the main body portion, a dented stepped portion corresponding to the thickness of the flange portion is formed, and wherein when the sleeve is inserted from the inlet side of the molten metal passage of the main body portion, the flange portion of the sleeve is engaged with the stepped portion of the main body portion and, as a result, the inlet side end face of the molten metal pouring nozzle forms a continuous single flat surface of two members, so that the molten metal flowing toward the mold causes the flange portion to be pressed against the stepped portion, the sleeve thereby being in a pulling-out prevented state.
A cosmetic product comprising: a cosmetic material container main body; and a three-dimensional woven fabric impregnation material (100, 200) which is mounted in the container main body so as to be impregnated with a liquid cosmetic material and has a first surface (110, 210) and a second surface (120, 220), wherein the three-dimensional woven fabric impregnation material (100, 200) includes a vertically layered structure including: a first surface region having a first pattern; a second surface region having a second pattern; and a pillar region which is formed between the first surface region and the second surface region by Z-yarns that connect the first surface region and the second surface region, and a circumference of the impregnation material has a rim portion (130, 230) at which the vertically layered structure is melted or softened and compressed. a cosmetic material container main body; and a three-dimensional woven fabric impregnation material (100, 200) which is mounted in the container main body so as to be impregnated with a liquid cosmetic material and has a first surface (110, 210) and a second surface (120, 220), wherein the three-dimensional woven fabric impregnation material (100, 200) includes a vertically layered structure including: a first surface region having a first pattern; a second surface region having a second pattern; and a pillar region which is formed between the first surface region and the second surface region by Z-yarns that connect the first surface region and the second surface region, and a circumference of the impregnation material has a rim portion (130, 230) at which the vertically layered structure is melted or softened and compressed. a first surface region having a first pattern; a second surface region having a second pattern; and a pillar region which is formed between the first surface region and the second surface region by Z-yarns that connect the first surface region and the second surface region, and a circumference of the impregnation material has a rim portion (130, 230) at which the vertically layered structure is melted or softened and compressed.
A bracing device (100, 200) for fastening a lining framework to a structure to be lined, in particular to a framed structure, said device including - a main body comprising • a rod (20, 120), suitable in particular for receiving a membrane pinned onto same, extending in a so-called axial direction, and • a fastening base for fastening to the structure to be lined, at a rear end of the rod (20, 120), and - a coupling part (60, 160) provided with means for fastening to the lining framework, suitable for being assembled with a front end (20a, 120a) of the rod, the bracing device (100, 200) being characterised in that it comprises a mechanism for adjusting the length of the body by steps, by relative sliding of the fastening base and the rod (20, 120), said adjustment mechanism being configured so that the fastening base and the rod (20, 120) can slide relative to one another in the axial direction in a first relative angular position, and the fastening base and the rod (20, 120) are suitable for pivoting towards a second relative angular position, in which they are locked in axial translation, only in a plurality of stepped adjustment positions in the axial direction with a coarse pitch P of 0.5 to 5 cm, preferably 0.5 to 2 cm, even more preferably 0.8 to 1.3 cm. - a main body comprising • a rod (20, 120), suitable in particular for receiving a membrane pinned onto same, extending in a so-called axial direction, and • a fastening base for fastening to the structure to be lined, at a rear end of the rod (20, 120), and • a rod (20, 120), suitable in particular for receiving a membrane pinned onto same, extending in a so-called axial direction, and • a fastening base for fastening to the structure to be lined, at a rear end of the rod (20, 120), and - a coupling part (60, 160) provided with means for fastening to the lining framework, suitable for being assembled with a front end (20a, 120a) of the rod, the bracing device (100, 200) being characterised in that it comprises a mechanism for adjusting the length of the body by steps, by relative sliding of the fastening base and the rod (20, 120), said adjustment mechanism being configured so that the fastening base and the rod (20, 120) can slide relative to one another in the axial direction in a first relative angular position, and the fastening base and the rod (20, 120) are suitable for pivoting towards a second relative angular position, in which they are locked in axial translation, only in a plurality of stepped adjustment positions in the axial direction with a coarse pitch P of 0.5 to 5 cm, preferably 0.5 to 2 cm, even more preferably 0.8 to 1.3 cm.
A medicinal composition, wherein the medical composition comprises a liposome made of hydrogenated phosphatidyl choline and cholesterol and whose surface has been modified with a polyethylene glycol derivative, wherein the polyethylene glycol derivative is polyethylene glycol-phosphatidylethanol amine, and has a molecular weight of the polyethylene glycol of the polyethylene glycol derivative of 5000 dalton, and a polyethylene glycol, wherein the molecular weight of the polyethylene glycol is in the range from 400 to 4000 dalton. a liposome made of hydrogenated phosphatidyl choline and cholesterol and whose surface has been modified with a polyethylene glycol derivative, wherein the polyethylene glycol derivative is polyethylene glycol-phosphatidylethanol amine, and has a molecular weight of the polyethylene glycol of the polyethylene glycol derivative of 5000 dalton, and a polyethylene glycol, wherein the molecular weight of the polyethylene glycol is in the range from 400 to 4000 dalton.