mhurhangee/patent-ind-claim-en huggingface dataset:
Device for conveying products within a production line, between an upstream station dispensing in accordance with a first referencing of products , and a downstream station supplied with said products in accordance with another referencing ; said device comprising: - at least one conveyor extending between said upstream station and said downstream station, which conveyor is configured to transport said products in accordance with said other referencing in at least one conveying direction; - said conveyor comprising a receiving zone at said upstream station and a zone for supplying said downstream station; - means for accompanying the products by pushing, said accompanying means comprising a section extending parallel with respect to at least a portion of said at least one conveyor , located between said upstream station and said downstream station; characterized in that : - said portion comprises a fixed downstream end ; - said portion and said receiving zone are integrally movable between a top position and a bottom position, said portion being movable around its fixed downstream end ; and - said section is jointly movable with said portion. - at least one conveyor extending between said upstream station and said downstream station, which conveyor is configured to transport said products in accordance with said other referencing in at least one conveying direction; - said conveyor comprising a receiving zone at said upstream station and a zone for supplying said downstream station; - means for accompanying the products by pushing, said accompanying means comprising a section extending parallel with respect to at least a portion of said at least one conveyor , located between said upstream station and said downstream station; - said portion comprises a fixed downstream end ; - said portion and said receiving zone are integrally movable between a top position and a bottom position, said portion being movable around its fixed downstream end ; and - said section is jointly movable with said portion.
A method of operation in a dual-SIM dual-standby, DSDS, device , comprising: receiving , at the DSDS device, a command to enter a first mode; obtaining a first phone number associated with a first subscription on the DSDS device and a second phone number associated with a second subscription on the DSDS device as a result of receiving the command; activating Call Forward Not Reachable services for both the first subscription and the second subscription, wherein the DSDS device sets a first forward-to phone number associated with the first subscription to the second phone number and sets a second forward-to phone number associated with the second subscription to the first phone number; and enabling call waiting services associated with each of the first subscription and the second subscription. receiving , at the DSDS device, a command to enter a first mode; obtaining a first phone number associated with a first subscription on the DSDS device and a second phone number associated with a second subscription on the DSDS device as a result of receiving the command; activating Call Forward Not Reachable services for both the first subscription and the second subscription, wherein the DSDS device sets a first forward-to phone number associated with the first subscription to the second phone number and sets a second forward-to phone number associated with the second subscription to the first phone number; and enabling call waiting services associated with each of the first subscription and the second subscription.
A pharmaceutical fatty acid composition for use in the treatment of atopic dermatitis, wherein the pharmaceutical fatty acid composition comprises DGLA encapsulated in a capsule shell, wherein the DGLA represents at least 95% by weight of all fatty acids in the pharmaceutical fatty acid composition, and wherein the treatment of atopic dermatitis comprises administration of 1g or 2g of the pharmaceutical fatty acid composition per day.
Arrangement for an electrical switch element, comprising a contact switch chamber and two contacts which are arranged in the contact switch chamber , wherein a wall of the contact switch chamber has at least one insulation slot between the two contacts having an opening which extends transversely relative to a connection line between the two contacts , wherein the wall of the contact switch chamber has a wide collection trough which extends transversely between the two contacts , characterized in that the material of the contact switch chamber is a plastic material that contains fire-retardant agents, and in that an edge of the collection trough , which edge is located at a side closer to a contact , has a chamfer .
A cutting and splitting machine comprising: a chainsaw bar for cutting sawlogs into pieces, a bi-directional hydraulic cylinder , the piston rod of which is connected to the chainsaw bar in such a way that it can perform the cutting and reciprocating stroke of the chainsaw bar, a hydraulic motor that drives the cutting chain of the chainsaw bar, a pump , characterized in that it further comprises a first hydraulic line which hydraulically connects the pump to the hydraulic motor via a 4/2 way shut-off valve , a second hydraulic line which hydraulically connects the first hydraulic line on the inlet side of the hydraulic motor to the hydraulic cylinder on the piston rod side, a third hydraulic line which hydraulically connects the first hydraulic line on the outlet side of the 4/2 way shut-off valve via a reducing valve to the hydraulic cylinder on the piston side, where the parameters are chosen in such a way that the relationship p D × πD 2 4 = p HMmax × π 4 D 2 − d 2 is fulfilled, wherein d is diameter of the hydraulic cylinder piston rod , D is diameter of the hydraulic cylinder piston , p HMmax is maximum pressure of the hydraulic motor , wherein p HMmax is lower than the maximum peak pressure of the hydraulic motor, preferably lower than the maximum intermittent pressure declared by the hydraulic motor manufacturer; and p D is working pressure set using a reducing valve . a chainsaw bar for cutting sawlogs into pieces, a bi-directional hydraulic cylinder , the piston rod of which is connected to the chainsaw bar in such a way that it can perform the cutting and reciprocating stroke of the chainsaw bar, a hydraulic motor that drives the cutting chain of the chainsaw bar, a pump , characterized in that it further comprises a first hydraulic line which hydraulically connects the pump to the hydraulic motor via a 4/2 way shut-off valve , a second hydraulic line which hydraulically connects the first hydraulic line on the inlet side of the hydraulic motor to the hydraulic cylinder on the piston rod side, a third hydraulic line which hydraulically connects the first hydraulic line on the outlet side of the 4/2 way shut-off valve via a reducing valve to the hydraulic cylinder on the piston side, where the parameters are chosen in such a way that the relationship p D × πD 2 4 = p HMmax × π 4 D 2 − d 2 is fulfilled, wherein d is diameter of the hydraulic cylinder piston rod , D is diameter of the hydraulic cylinder piston , p HMmax is maximum pressure of the hydraulic motor , wherein p HMmax is lower than the maximum peak pressure of the hydraulic motor, preferably lower than the maximum intermittent pressure declared by the hydraulic motor manufacturer; and p D is working pressure set using a reducing valve .
Chemical conversion process comprising plasmonic heating of a reaction mixture, which reaction mixture comprises at least a one component and plasmonic particles, by exposing said reaction mixture to light comprising one or more wavelengths which are absorbed by at least part of the plasmonic particles, thereby controlling the reaction rate of one or more chemical reactions, wherein said reaction mixture comprises a first plasmonic particle associated with a first catalytic functionality for a first chemical reaction and a second plasmonic particle associated with a second catalytic functionality for a second chemical reaction, wherein said first plasmonic particle is different from said second plasmonic particle and said first catalytic functionality is different from said second catalytic functionality, wherein said first and second plasmonic particles both have a plasmon resonance wavelength, which plasmon resonance wavelengths differ by at least 2 nm, the process comprising: - exposing said reaction mixture to light comprising a plasmon resonance wavelength of said first plasmonic particle, thereby selectively promoting said first chemical reaction, and - thereafter exposing said reaction mixture to light comprising a plasmon resonance wavelength of said second plasmonic particle, thereby selectively promoting said second chemical reaction. - exposing said reaction mixture to light comprising a plasmon resonance wavelength of said first plasmonic particle, thereby selectively promoting said first chemical reaction, and - thereafter exposing said reaction mixture to light comprising a plasmon resonance wavelength of said second plasmonic particle, thereby selectively promoting said second chemical reaction.
An optical deflector comprising: a mirror ; a first support frame surrounding said mirror ; at least one first torsion bar (3-2, 3'-2) arranged along a first axis (X) of said mirror having an end coupled to an outer circumference of said mirror ; a pair of first piezoelectric actuators (4-2a, 4-2b; 4-a, 4-b) coupled between said first support frame and said first torsion bar (3-2, 3'-2); and a first piezoelectric sensor inserted between said first torsion bar (3-2, 3'-2) and one of said first piezoelectric actuators (4-2a, 4-a), characterized in that said first piezoelectric sensor includes at least one first piezoelectric sensor element (5-1, 5-2; 5'-1, 5'-2) having a width being smaller than two-fifths of a width (W) of the one of said first piezoelectric actuators (4-2a, 4-a) and being arranged at a wide portion within two-fifths of said width (W) from an inner end of the one of said first piezoelectric actuators (4-2a, 4-a) in the vicinity of said first torsion bar (3-2, 3'-2); and said first piezoelectric sensor further includes at least one first inactivated piezoelectric sensor element (5-3, 5-4, 5-5; 5'-3, 5'-4, 5'-5) on one side of said first piezoelectric sensor element (5-1, 5-2; 5'-1, 5'-2), the piezoelectric sensor element being inactivated due to its upper electrode being grounded. a mirror ; a first support frame surrounding said mirror ; at least one first torsion bar (3-2, 3'-2) arranged along a first axis (X) of said mirror having an end coupled to an outer circumference of said mirror ; a pair of first piezoelectric actuators (4-2a, 4-2b; 4-a, 4-b) coupled between said first support frame and said first torsion bar (3-2, 3'-2); and a first piezoelectric sensor inserted between said first torsion bar (3-2, 3'-2) and one of said first piezoelectric actuators (4-2a, 4-a), characterized in that said first piezoelectric sensor includes at least one first piezoelectric sensor element (5-1, 5-2; 5'-1, 5'-2) having a width being smaller than two-fifths of a width (W) of the one of said first piezoelectric actuators (4-2a, 4-a) and being arranged at a wide portion within two-fifths of said width (W) from an inner end of the one of said first piezoelectric actuators (4-2a, 4-a) in the vicinity of said first torsion bar (3-2, 3'-2); and said first piezoelectric sensor further includes at least one first inactivated piezoelectric sensor element (5-3, 5-4, 5-5; 5'-3, 5'-4, 5'-5) on one side of said first piezoelectric sensor element (5-1, 5-2; 5'-1, 5'-2), the piezoelectric sensor element being inactivated due to its upper electrode being grounded.
A sintered alloy represented by a composition consisting of, in percentage by mass, Cr: 10.37 to 39.73, Ni: 5.10 to 24.89, Si: 0.14 to 2.52, Cu: 1.0 to 10.0, P: 0.1 to 1.5, C: 0.18 to 3.2, at least one element selected from the group consisting of Mo, V, W, Nb and Ti: 0 to 5, and the balance of Fe plus unavoidable impurities, the sintered alloy consisting of: a phase A including a Cr concentration of 25 to 45 mass%, a Si concentration of 1.0 to 3.0 mass%, and a precipitated metallic carbide having an average particle diameter DA of 10 to 50 μm; and a phase B including a Cr concentration of 12 to 25 mass%, a Si concentration of 1.0 mass% or less, and a precipitated metallic carbide having an average particle diameter DB of 10 μm or less, wherein the average particle diameter is obtained as mentioned in the description and refers to respective circular shaped particles, wherein the Cr concentration of the phase B is lower than that of the phase A, wherein the Si concentration of the phase B is lower than that of the phase A, wherein each of the phase A and the phase B has an austenitic structure, wherein a maximum dimension of the phase A is within a range of 100 μm or more and 500 μm or less, wherein the phase A occupies 20 to 80% of a total area of the phase A and the phase B, wherein the phase A is dispersed in the phase B and the average particle diameter DA is larger than the average particle diameter DB, and wherein a density ratio of the sintered alloy is 90% or more. a phase A including a Cr concentration of 25 to 45 mass%, a Si concentration of 1.0 to 3.0 mass%, and a precipitated metallic carbide having an average particle diameter DA of 10 to 50 μm; and a phase B including a Cr concentration of 12 to 25 mass%, a Si concentration of 1.0 mass% or less, and a precipitated metallic carbide having an average particle diameter DB of 10 μm or less, wherein the average particle diameter is obtained as mentioned in the description and refers to respective circular shaped particles, wherein the Cr concentration of the phase B is lower than that of the phase A, wherein the Si concentration of the phase B is lower than that of the phase A, wherein each of the phase A and the phase B has an austenitic structure, wherein a maximum dimension of the phase A is within a range of 100 μm or more and 500 μm or less, wherein the phase A occupies 20 to 80% of a total area of the phase A and the phase B, wherein the phase A is dispersed in the phase B and the average particle diameter DA is larger than the average particle diameter DB, and wherein a density ratio of the sintered alloy is 90% or more.
A liquid mixing system , comprising: a magnetic assembly comprising at least one magnetic structure , each magnetic structure comprising a plurality of electromagnets disposed about a center axis, wherein each of the plurality of electromagnets has an electrically-conductive coil disposed about a centerline extending toward the center axis of the magnetic structure, wherein the magnetic structure is configured to receive a liquid container defining a liquid chamber therein for containing a liquid and a plurality of magnetic particles , and wherein each of the plurality of electromagnets are configured to generate a magnetic field within the liquid container disposed on the center axis of the magnetic structure when an electrical signal is applied to each of the electromagnets' electrically-conductive coil ; and a control component coupled to the at least one magnetic structure , the control component being configured to control the magnetic field generated by each of the plurality of electromagnets to generate a magnetic field gradient within the at least one liquid container sufficient to magnetically influence the plurality of magnetic particles within the liquid wherein the control component provides an electrical signal in the form of radio frequency (RF) signals or alternating current (AC) signals to each of the plurality of electromagnets . a magnetic assembly comprising at least one magnetic structure , each magnetic structure comprising a plurality of electromagnets disposed about a center axis, wherein each of the plurality of electromagnets has an electrically-conductive coil disposed about a centerline extending toward the center axis of the magnetic structure, wherein the magnetic structure is configured to receive a liquid container defining a liquid chamber therein for containing a liquid and a plurality of magnetic particles , and wherein each of the plurality of electromagnets are configured to generate a magnetic field within the liquid container disposed on the center axis of the magnetic structure when an electrical signal is applied to each of the electromagnets' electrically-conductive coil ; and wherein the magnetic structure is configured to receive a liquid container defining a liquid chamber therein for containing a liquid and a plurality of magnetic particles , and wherein each of the plurality of electromagnets are configured to generate a magnetic field within the liquid container disposed on the center axis of the magnetic structure when an electrical signal is applied to each of the electromagnets' electrically-conductive coil ; and a control component coupled to the at least one magnetic structure , the control component being configured to control the magnetic field generated by each of the plurality of electromagnets to generate a magnetic field gradient within the at least one liquid container sufficient to magnetically influence the plurality of magnetic particles within the liquid wherein the control component provides an electrical signal in the form of radio frequency (RF) signals or alternating current (AC) signals to each of the plurality of electromagnets .
A solar energy collection apparatus for increasing a quantum of solar radiation incident on a collector of solar energy during a solar cycle compared with a quantum of solar energy incident on the collector alone, said apparatus comprising: a collector of solar energy comprising a top surface and an underside surface ; wherein the top and underside surfaces are configured to collect solar energy; two or more reflectors in a location proximate to and at a distance from the collector , and at an angle or angles other than at a right angle to the collector , the two or more reflectors each having a reflective surface area; the collector adapted to receive solar radiation on the top surface of the collector directly from the sun and wherein each of the two or more reflectors are mounted in a fixed position and a fixed orientation relative to the collector such that reflected solar radiation is caused to be, depending on the height of the sun in the sky, either: (a) not reflected from any of the two or more reflectors to the underside surface of the collector ; or (b) reflected from at least one of the two or more reflectors to the underside surface of the collector ; or (c) reflected from one of the two or more reflectors to another one of the two or more reflectors and then onto the underside surface of the collector . a collector of solar energy comprising a top surface and an underside surface ; wherein the top and underside surfaces are configured to collect solar energy; two or more reflectors in a location proximate to and at a distance from the collector , and at an angle or angles other than at a right angle to the collector , the two or more reflectors each having a reflective surface area; the collector adapted to receive solar radiation on the top surface of the collector directly from the sun and wherein each of the two or more reflectors are mounted in a fixed position and a fixed orientation relative to the collector such that reflected solar radiation is caused to be, depending on the height of the sun in the sky, either: (a) not reflected from any of the two or more reflectors to the underside surface of the collector ; or (b) reflected from at least one of the two or more reflectors to the underside surface of the collector ; or (c) reflected from one of the two or more reflectors to another one of the two or more reflectors and then onto the underside surface of the collector . (a) not reflected from any of the two or more reflectors to the underside surface of the collector ; or (b) reflected from at least one of the two or more reflectors to the underside surface of the collector ; or (c) reflected from one of the two or more reflectors to another one of the two or more reflectors and then onto the underside surface of the collector .
A portable electronic device for stamping and archiving an encoded digital signature comprising a battery power supply of common type (Bel1), an electrical (Bel2a) or mechanical (Bel2b) or hybrid printing system (Bel2), a processor (Bel3), an internal memory (Bel4), a port (Bel5) for a removable external memory (Bel6), an USB connection socket (Bel7), a SIM-card for data and Internet connection (Bel8), a keypad (Bel9), a display (Bel10), an audio-video microcamera with integrated flash and audio reproducer (Bel11), a wireless, infrared, or Bluetooth and an Internet Wi-Fi connection interface (Bel12), characterized in that : a) it prints in a single operation a unique stamp for the authentication of a paper document, said stamp containing not reproducible and not photo-copyable data and codes, which makes the original paper document unique and not falsifiable, visibly and directly verifiable and legally assigned to the signature of the authorized user of said stamping device; b) said stamp being made of a plurality of engraving fields (Ael1, Ael2, Ael3, Ael4) and printed with two types of different inks at the same time; c) at least one of said different inks is a visible ink of changeable properties, in particular a glittered or metallized ink and at least one further type of said different inks is a UV-ink being visible only under a UV light source. a) it prints in a single operation a unique stamp for the authentication of a paper document, said stamp containing not reproducible and not photo-copyable data and codes, which makes the original paper document unique and not falsifiable, visibly and directly verifiable and legally assigned to the signature of the authorized user of said stamping device; b) said stamp being made of a plurality of engraving fields (Ael1, Ael2, Ael3, Ael4) and printed with two types of different inks at the same time; c) at least one of said different inks is a visible ink of changeable properties, in particular a glittered or metallized ink and at least one further type of said different inks is a UV-ink being visible only under a UV light source.
An optoelectronic device including a photoactive region containing indirect band gap semiconductor material doped with ions of a rare earth element, said ions having energy states that lie within a forbidden band between the conduction and valence bands of the semiconductor material, characterised in that , in operation, said photoactive region undergoes radiation emissive or radiation absorptive transitions between an energy band of the semiconductor material and at least one of said energy states of the dopant ions, wherein the device incorporates a strain field located within, or in the vicinity of, the photoactive region.