mhurhangee/ep-ind-claims huggingface dataset:
An imaging device having lens means with a single focal point on an imaging surface, wherein the imaging device is configured to have a solid-state imaging element on which a plurality of pixels are arranged in a matrix pattern in the imaging surface, have a light shielding layer having a plurality of slit-shaped aperture sections, wherein one aperture section corresponds to one pixel, which has a right photodiode and a left photodiode, and separates a light flux incident from a subject and focused through the slit-shaped aperture section into a right diagonal light flux and a left diagonal light flux, allow the right photodiode to receive the right diagonal light flux and the left photodiode to receive the left diagonal light flux and to respectively photoelectrically convert the right diagonal light flux and the left diagonal light flux, and simultaneously image the right diagonal light flux as a right image and the left diagonal light flux as a left image to enable three-dimensional imaging with the solid-state imaging element. have a solid-state imaging element on which a plurality of pixels are arranged in a matrix pattern in the imaging surface, have a light shielding layer having a plurality of slit-shaped aperture sections, wherein one aperture section corresponds to one pixel, which has a right photodiode and a left photodiode, and separates a light flux incident from a subject and focused through the slit-shaped aperture section into a right diagonal light flux and a left diagonal light flux, allow the right photodiode to receive the right diagonal light flux and the left photodiode to receive the left diagonal light flux and to respectively photoelectrically convert the right diagonal light flux and the left diagonal light flux, and simultaneously image the right diagonal light flux as a right image and the left diagonal light flux as a left image to enable three-dimensional imaging with the solid-state imaging element.
A relay assembly comprising: a housing; a relay enclosed within the housing; an exhaust cover that is positioned in an opening of the housing and adjacent to the relay, wherein the exhaust cover is adapted to move in a direction away from the relay in response to a pressure generated inside the housing by the relay, characterised in that it further comprises: a retaining structure adjacent to the exhaust cover, arranged to retain the relay assembly to an equipment rack; wherein the retaining structure includes an isolation portion extending from the housing in a direction away from the relay so as to isolate material expelled from the housing. a housing; a relay enclosed within the housing; an exhaust cover that is positioned in an opening of the housing and adjacent to the relay, wherein the exhaust cover is adapted to move in a direction away from the relay in response to a pressure generated inside the housing by the relay, characterised in that it further comprises: a retaining structure adjacent to the exhaust cover, arranged to retain the relay assembly to an equipment rack; wherein the retaining structure includes an isolation portion extending from the housing in a direction away from the relay so as to isolate material expelled from the housing. a retaining structure adjacent to the exhaust cover, arranged to retain the relay assembly to an equipment rack; wherein the retaining structure includes an isolation portion extending from the housing in a direction away from the relay so as to isolate material expelled from the housing.
A portable device including a proximity sensor, wherein the proximity sensor generates a proximity signal ( U n) representing the distance between the device and a body part of a user, the portable device being arranged to determine whether the portable device is in a predetermined relationship of proximity with the body part, and including a drift compensation unit (60, 40) comprising a baseline estimation unit and a subtracting unit, wherein the baseline estimation unit is arranged to track and output a drift value (An) and the subtracting unit is arranged to subtract the drift value ( A n) from the proximity signal (U n), generating a drift-compensated signal ( D n), and an output discriminator configured to assert a binary or multi-bit proximity value (Prox) when the drift-compensated signal ( D n) exceeds a predetermined distance threshold, characterized in that baseline estimation unit is arranged to estimate a variation (Δ var) of the proximity signal in a determined time interval, the baseline estimation unit being configured to output an updated value of the drift (An) if the variation (Δ var) is in a predetermined acceptance region, and to freeze the tracking of the drift if the binary or multi-bit proximity value (Prox) is asserted and the variation (Δ var) is not in a predetermined acceptance region. wherein the baseline estimation unit outputs a previous value (An-1) of the drift.
A resin composition comprising the following components (a) to (c): (a) at least one 2-methylene-1,3-dicarbonyl compound; (b) at least one type of conductive particles; and (c) at least one monocarboxylic acid with a number of carbon atoms of 3 or more. (a) at least one 2-methylene-1,3-dicarbonyl compound; (b) at least one type of conductive particles; and (c) at least one monocarboxylic acid with a number of carbon atoms of 3 or more.
Process for producing trifluoromethanesulfonic acid-acidified equilibrated α,ω-diacetoxypolydimethylsiloxanes, characterized in that cyclic siloxanes, in particular comprising D 4 and/or D 5, are reacted with acetic anhydride using trifluoromethanesulfonic acid as catalyst and with addition of acetic acid.
A transmission method that transmits an optical signal from transmitting node equipment to receiving node equipment via a plurality of virtual lanes in dual polarization or multi-level modulation, the transmission method comprising: receiving a first frame signal of a first frequency and a second frame signal of a second frequency, and storing the first frame signal and the second frame signal on a memory in the transmitting node equipment; characterized by reading out the first frame signal from the memory at a third frequency, and inserting a stuff byte into the first frame signal read out from the memory such that a difference between the first frequency and the third frequency is adjusted to generate a third frame signal; reading out the second frame signal from the memory at the third frequency, and inserting a stuff byte into the second frame signal read out from the memory such that a difference between the second frequency and the third frequency is adjusted to generate a fourth frame signal; and transmitting the third fame signal and the fourth frame signal respectively via different virtual lanes, wherein the third frequency is higher than the first frequency and the second frequency. receiving a first frame signal of a first frequency and a second frame signal of a second frequency, and storing the first frame signal and the second frame signal on a memory in the transmitting node equipment; characterized by reading out the first frame signal from the memory at a third frequency, and inserting a stuff byte into the first frame signal read out from the memory such that a difference between the first frequency and the third frequency is adjusted to generate a third frame signal; reading out the second frame signal from the memory at the third frequency, and inserting a stuff byte into the second frame signal read out from the memory such that a difference between the second frequency and the third frequency is adjusted to generate a fourth frame signal; and transmitting the third fame signal and the fourth frame signal respectively via different virtual lanes, wherein the third frequency is higher than the first frequency and the second frequency.
An alpha subunit polypeptide selected from the group consisting of wild-type bovine alpha subunit polypeptide (SEQ ID NO:2), wild-type ovine alpha subunit polypeptide (SEQ ID NO:3), wild-type equine alpha subunit polypeptide (SEQ ID NO:4), and wild-type porcine alpha subunit polypeptide (SEQ ID NO:5), wherein said alpha subunit polypeptide comprises: an amino acid insert that provides a potential glycosylation site, wherein said insert is placed immediately after position 6 or 7 of said alpha subunit polypeptide; and one or more of the following substitutions of a wild-type amino acid of said alpha subunit polypeptide with a basic amino acid: (i) the wild-type amino acid at position 15 is substituted with Arginine, (ii) the wild-type amino acid at position 17 of SEQ ID NO: 2, 3 or 5 is substituted with Arginine, (iii) the wild-type amino acid at position 18 is substituted with Arginine, Lysine, or Histidine, (iv) the wild-type amino acid at position 20 is substituted with Arginine, and (v) the wild-type amino acid at position 24 is substituted with Arginine. an amino acid insert that provides a potential glycosylation site, wherein said insert is placed immediately after position 6 or 7 of said alpha subunit polypeptide; and one or more of the following substitutions of a wild-type amino acid of said alpha subunit polypeptide with a basic amino acid: (i) the wild-type amino acid at position 15 is substituted with Arginine, (ii) the wild-type amino acid at position 17 of SEQ ID NO: 2, 3 or 5 is substituted with Arginine, (iii) the wild-type amino acid at position 18 is substituted with Arginine, Lysine, or Histidine, (iv) the wild-type amino acid at position 20 is substituted with Arginine, and (v) the wild-type amino acid at position 24 is substituted with Arginine. (i) the wild-type amino acid at position 15 is substituted with Arginine, (ii) the wild-type amino acid at position 17 of SEQ ID NO: 2, 3 or 5 is substituted with Arginine, (iii) the wild-type amino acid at position 18 is substituted with Arginine, Lysine, or Histidine, (iv) the wild-type amino acid at position 20 is substituted with Arginine, and (v) the wild-type amino acid at position 24 is substituted with Arginine.
A method of operating a laundry treating appliance having a drum at least partially defining a treating chamber for receiving a laundry load, and a motor for rotating the drum, the method comprising: - rotating the drum by operating the motor; - repeatedly determining an amplitude of a peak-to-peak value of a motor torque during the rotating of the drum to provide multiple peak-to-peak values; - determining an average peak-to-peak value from the multiple peak-to-peak values; - determining an amount of imbalance of the laundry load in the drum based on the determined average peak-to-peak value; - comparing the amount of imbalance to a threshold imbalance value; and - taking corrective action when the comparison indicates the determined amount of imbalance does not satisfy the threshold imbalance, wherein the determining the average peak-to-peak value includes determining a running average peak-to-peak value; wherein the repeatedly determining the amplitude of a peak-to-peak value of the motor torque occurs during an acceleration of the drum through a satellizing speed for the laundry load and wherein the threshold value changes during an acceleration of the drum through the satellizing speed for the laundry load. - rotating the drum by operating the motor; - repeatedly determining an amplitude of a peak-to-peak value of a motor torque during the rotating of the drum to provide multiple peak-to-peak values; - determining an average peak-to-peak value from the multiple peak-to-peak values; - determining an amount of imbalance of the laundry load in the drum based on the determined average peak-to-peak value; - comparing the amount of imbalance to a threshold imbalance value; and - taking corrective action when the comparison indicates the determined amount of imbalance does not satisfy the threshold imbalance,
An image forming apparatus comprising: a media conditioning module comprising: a heater positioned to supply heated air to both sides of sheets of media as said sheets of media pass through said media conditioning module along a transport path; and a cooler positioned to supply non-heated air to both sides of said sheets of media as said sheets of media pass through said media conditioning module, wherein said heater is positioned with respect to said cooler such that said sheets of media pass by said heater before said sheets of media pass by said cooler, wherein said heater comprises a heating element and ductwork on each side of said sheets of media and oppositely arranged for directing said heated air from said heating element to said sheets of media in a direction inclined towards said sheets of media and towards a downstream side of said transport path. a media conditioning module comprising: a heater positioned to supply heated air to both sides of sheets of media as said sheets of media pass through said media conditioning module along a transport path; and a cooler positioned to supply non-heated air to both sides of said sheets of media as said sheets of media pass through said media conditioning module, wherein said heater is positioned with respect to said cooler such that said sheets of media pass by said heater before said sheets of media pass by said cooler, a heater positioned to supply heated air to both sides of sheets of media as said sheets of media pass through said media conditioning module along a transport path; and a cooler positioned to supply non-heated air to both sides of said sheets of media as said sheets of media pass through said media conditioning module, wherein said heater is positioned with respect to said cooler such that said sheets of media pass by said heater before said sheets of media pass by said cooler, wherein said heater comprises a heating element and ductwork on each side of said sheets of media and oppositely arranged for directing said heated air from said heating element to said sheets of media in a direction inclined towards said sheets of media and towards a downstream side of said transport path.
An ecological composition for de-icing of ground infrastructure, characterized in that it consists of 98.00 to 99.38% wt. of sodium formate, from 0.50 to 1.88% wt. of alkali metal metasilicate, from 0.01 to 0.50% wt. of at least one alkaline metal phosphate, from 0.10 to 1.00% wt. of sodium polyasparaginate, and from 0.01 to 0.50% wt. of imidazole.
A vehicle driving simulator platform comprising a base element, a pivoting frame, arranged at the top of the base element, and pivotally attached to the base element, a first pivoting actuator attached to the base element and to the pivoting frame for causing the pivoting frame to pivot about a first horizontal axis, a first rotator pivotally attached to the pivoting frame and arranged on top of the pivoting frame, a second pivoting actuator attached to the pivoting frame and to the first rotator for causing the first rotator to pivot about a second horizontal axis, which is perpendicular to the first horizontal axis, and a vehicle compartment connection, which is attached to the first rotator, and thereby is rotatable about a centre axis of the first rotator.
A deburring apparatus comprising a deburring tool at a distal end portion of an arm of an articulated robot; wherein the deburring tool includes a profiling guide member in which a cutting tool is inserted and fitted and that has an opening (41;541) exposing a blade portion of the cutting tool, wherein each of opening edge portions (42, 43; 542, 543) of the opening includes a profiling guide portion (45; 145) and recessed portions (46, 47; 146, 147) located on both sides of the profiling guide portion and extending in the circumferential direction, wherein the deburring apparatus is configured to press the deburring tool against a workpiece placed at a workpiece placement jig so that the profiling guide portion is moved keeping in contact with a profile reference surface of the workpiece, to remove burrs of the workpiece; wherein the profiling guide portion expands, in the circumferential direction of the profiling guide member at an angle (θ1) of 60°-120°, in a sector shape that is centered on the center axis of the profiling guide member, each of the recessed portions expands in the circumferential direction at an angle (θ2, Θ3) of 90° centered on the center axis, the recessed portion being formed such that the opening edge portion is cut along at least the tangent line direction of an inner end point of the profiling guide portion, and the profiling guide portion is formed to have a conical shape in side view. wherein the deburring tool includes a profiling guide member in which a cutting tool is inserted and fitted and that has an opening (41;541) exposing a blade portion of the cutting tool, wherein each of opening edge portions (42, 43; 542, 543) of the opening includes a profiling guide portion (45; 145) and recessed portions (46, 47; 146, 147) located on both sides of the profiling guide portion and extending in the circumferential direction, a profiling guide portion (45; 145) and recessed portions (46, 47; 146, 147) located on both sides of the profiling guide portion and extending in the circumferential direction, wherein the deburring apparatus is configured to press the deburring tool against a workpiece placed at a workpiece placement jig so that the profiling guide portion is moved keeping in contact with a profile reference surface of the workpiece, to remove burrs of the workpiece; wherein the profiling guide portion expands, in the circumferential direction of the profiling guide member at an angle (θ1) of 60°-120°, in a sector shape that is centered on the center axis of the profiling guide member, each of the recessed portions expands in the circumferential direction at an angle (θ2, Θ3) of 90° centered on the center axis, the recessed portion being formed such that the opening edge portion is cut along at least the tangent line direction of an inner end point of the profiling guide portion, and the profiling guide portion is formed to have a conical shape in side view.
A method for producing a radionuclide product B comprising the following steps: Providing a target comprising an amount of a nuclide A, providing a γ beam by Compton back-scattering of laser light from an electron beam, irradiating the target by the γ beam, thereby transmuting at least a portion of the amount of the nuclide A into the product B, characterized in that providing the target comprises selecting a nuclide A, such that A is transmutable into product B by one of a (γ, γ') reaction or a (γ, n) reaction, and in that providing said γ beam comprises providing a γ beam with a photon energy between 0.5 and 10 MeV in case of a (γ, γ') reaction and between 5 and 20 MeV in case of a (γ, n) reaction, wherein providing the γ beam comprises providing the γ beam with an energy bandwidth ΔE/E FWHM between 10 -2 and 10 -12. Providing a target comprising an amount of a nuclide A, providing a γ beam by Compton back-scattering of laser light from an electron beam, irradiating the target by the γ beam, thereby transmuting at least a portion of the amount of the nuclide A into the product B, characterized in that providing the target comprises selecting a nuclide A, such that A is transmutable into product B by one of a (γ, γ') reaction or a (γ, n) reaction, and in that providing said γ beam comprises providing a γ beam with a photon energy between 0.5 and 10 MeV in case of a (γ, γ') reaction and between 5 and 20 MeV in case of a (γ, n) reaction, wherein providing the γ beam comprises providing the γ beam with an energy bandwidth ΔE/E FWHM between 10 -2 and 10 -12.
Biocompatible and biodegradable nanofiber composition for wound healing and biomedical applications thereof comprising: a. Hydrophobic polymer selected from the group consisting of polycaprolactone, polylactide, polyhydroxyalkonates, polyglycolide, 2-hydroxy ethyl cellulose or Poly(3-Hydroxy butyric acid co-3-valeric acid) (PHBV); b. polysaccharides or proteins such as ethyl cellulose, egg albumin, bovine serum albumin or human serum albumen; and c. polyesteramide of linseed, castor or neem oil incorporated with a transition metal ion. a. Hydrophobic polymer selected from the group consisting of polycaprolactone, polylactide, polyhydroxyalkonates, polyglycolide, 2-hydroxy ethyl cellulose or Poly(3-Hydroxy butyric acid co-3-valeric acid) (PHBV); b. polysaccharides or proteins such as ethyl cellulose, egg albumin, bovine serum albumin or human serum albumen; and c. polyesteramide of linseed, castor or neem oil incorporated with a transition metal ion.
Method for communicating Data Messages from at least one first module to a second module in a network, comprising public networks, wherein said at least one first module and said second module, in addition to network ports, each respectively provides a communication port for connecting a first and a second computer to said first and second modules, respectively, wherein the second module is the only element that can read the Data Messages from the at least one first module; said method comprises the steps of: providing a first storage location in said at least one first module in communication with said communication port of said at least one first module such that said first storage location receives said Data Messages in a communication direction from said communication port to said storage location, wherein the communication direction is fixed such that said Data Messages can only be transmitted from the first computer via said communication port to the first storage location in said at least one first module, utilizing the second computer connected to said second module, at predefined time intervals to read said Data Messages stored in said first storage location in said at least one first module over said network and storing said transferred Data Messages in a second storage location in said second module, wherein said second storage location may be accessed by the second computer via said communication port of said second module. providing a first storage location in said at least one first module in communication with said communication port of said at least one first module such that said first storage location receives said Data Messages in a communication direction from said communication port to said storage location, wherein the communication direction is fixed such that said Data Messages can only be transmitted from the first computer via said communication port to the first storage location in said at least one first module, utilizing the second computer connected to said second module, at predefined time intervals to read said Data Messages stored in said first storage location in said at least one first module over said network and storing said transferred Data Messages in a second storage location in said second module, wherein said second storage location may be accessed by the second computer via said communication port of said second module.
System for dispensing and recovering liquids adapted to be disposed in a rigid container, including a tank for dispensing liquid to be used and a tank for recovering liquid after use, each of said tanks (16, 17) including an envelope and an orifice through which liquid passes, characterized in that each of said envelopes includes a first wall and a second wall which are similar and each of which includes an external surface and a peripheral rim, said walls (19, 20) of one of said envelopes being connected to each other by said peripheral rim, each of said envelopes being adapted to have a contracted configuration in which said walls (19, 20) are close to each other and said external surface of said second wall is convex while said external surface of said first wall is concave, and an expanded configuration in which contact between said two walls (19, 20) is limited to said peripheral rims and said external surfaces of each of said walls (19, 20) are convex, at least one of said envelopes being adapted, in its expanded configuration, to be nested in the other of said envelopes in its contracted configuration, said two first walls being in contact with each other.