mhurhangee/ep-ind-claims huggingface dataset:
An aluminum alloy for brazing provided for brazing via an Al-Si-based brazing material, the aluminum alloy consisting of: by mass%, Mg: 0.01% to 2.0%; Bi: 0.005% to 1.5%; optionally Ca: 100 mass ppm or less; optionally one or more of Si: 0.05% to 1.2%, Mn: 0.1% to 2.5%, Cu: 0.01% to 2.5 %, Fe: 0.05% to 1.5%, Zr: 0.01% to 0.3%, Ti: 0.01% to 0.3%, Cr: 0.01% to 0.5%, and Zn: 0.1% to 9.0%; and a remainder of Al and unavoidable impurities, wherein in the aluminum alloy, there are less than 5 Bi particles having a diameter of 5.0 μm or more in terms of equivalent circle diameter per 10,000-μm 2 visual field in the cross section parallel to the rolling direction, characterized in that in the aluminum alloy, there are more than 10 Mg-Bi-based compounds having a diameter of 0.01 μm or more and less than 5.0 μm in terms of equivalent circle diameter per 10,000-μm 2 visual field and there are less than 2 Mg-Bi-based compounds having a diameter of 5.0 μm or more per 10,000-μm 2 visual field in a cross section parallel to a rolling direction, and the number of the Mg-Bi-based compounds and the number of the Bi particles are determined in accordance with the description. in the aluminum alloy, there are less than 5 Bi particles having a diameter of 5.0 μm or more in terms of equivalent circle diameter per 10,000-μm 2 visual field in the cross section parallel to the rolling direction, characterized in that in the aluminum alloy, there are more than 10 Mg-Bi-based compounds having a diameter of 0.01 μm or more and less than 5.0 μm in terms of equivalent circle diameter per 10,000-μm 2 visual field and there are less than 2 Mg-Bi-based compounds having a diameter of 5.0 μm or more per 10,000-μm 2 visual field in a cross section parallel to a rolling direction, and the number of the Mg-Bi-based compounds and the number of the Bi particles are determined in accordance with the description.
An energy management system for a kitchen appliance, the energy management system comprising: a mains power system, a backup energy storage system, and at least one controller, wherein the controller is arranged to: determine a state of health of the energy storage system; determine a state of charge of the energy storage system; determine how energy from the energy storage system is to be used based on the determined state of health, the determined state of charge and at least one measured variable obtained from the kitchen appliance, and apply the energy to operate at least one function of the kitchen appliance, wherein the energy storage system comprises at least one battery, and the controller is further arranged to determine the state of charge based on a measured battery current and an estimated open circuit battery voltage, and wherein the controller is further arranged to determine the estimated open circuit battery voltage based on the battery temperature and the battery voltage. a mains power system, a backup energy storage system, and at least one controller, wherein the controller is arranged to: determine a state of health of the energy storage system; determine a state of charge of the energy storage system; determine how energy from the energy storage system is to be used based on the determined state of health, the determined state of charge and at least one measured variable obtained from the kitchen appliance, and apply the energy to operate at least one function of the kitchen appliance, determine a state of health of the energy storage system; determine a state of charge of the energy storage system; determine how energy from the energy storage system is to be used based on the determined state of health, the determined state of charge and at least one measured variable obtained from the kitchen appliance, and apply the energy to operate at least one function of the kitchen appliance, wherein the energy storage system comprises at least one battery, and the controller is further arranged to determine the state of charge based on a measured battery current and an estimated open circuit battery voltage, and wherein the controller is further arranged to determine the estimated open circuit battery voltage based on the battery temperature and the battery voltage.
A marine air gun comprising: a pressure release assembly that releases compressed air into water to generate an acoustic signal; a pressure transducer carried by the pressure release assembly, the pressure transducer configured to detect an internal pressure of a chamber in the pressure release assembly or a change in pressure in or about the pressure release assembly; an actuator that moves to actuate the pressure release assembly in response to an electrical signal applied to the actuator, the actuator carried by the pressure release assembly; and digital electronic circuitry comprising a digital electronic controller carried by the pressure release assembly, wherein the digital electronic controller controls the electrical signal applied to the actuator to control the release of compressed air by the pressure release assembly based on digital communications received from a command center, wherein the pressure transducer is configured to transmit first analog data to the digital electronic circuitry and the digital electronic circuitry is configured to digitize and store the transducer data to transmit the digitized transducer data to the command center, characterised in that the digital electronic circuitry and the actuator are integrated directly into a housing of the actuator. a pressure release assembly that releases compressed air into water to generate an acoustic signal; a pressure transducer carried by the pressure release assembly, the pressure transducer configured to detect an internal pressure of a chamber in the pressure release assembly or a change in pressure in or about the pressure release assembly; an actuator that moves to actuate the pressure release assembly in response to an electrical signal applied to the actuator, the actuator carried by the pressure release assembly; and digital electronic circuitry comprising a digital electronic controller carried by the pressure release assembly, wherein the digital electronic controller controls the electrical signal applied to the actuator to control the release of compressed air by the pressure release assembly based on digital communications received from a command center, wherein the pressure transducer is configured to transmit first analog data to the digital electronic circuitry and the digital electronic circuitry is configured to digitize and store the transducer data to transmit the digitized transducer data to the command center, characterised in that the digital electronic circuitry and the actuator are integrated directly into a housing of the actuator.
A modified EGFR gene, which consists of a sequence which encodes a truncated EGFR consisting of the EGFR Domain III, the EGFR transmembrane domain and the EGFR Domain IV.
A chemical compound or a salt or solvate thereof having the structure wherein X is -C(=O)-, -C(=S)-, or -S(=O) 2 -, R 1 is an organic side chain comprising at least 2 C-atoms if X is C(=O), and at least 1 C-atom if X is C(=S) or S(=O) 2, R 1 is an organic side chain comprising at least 2 C-atoms, R 3 is H or an organic side chain, wherein at least one of R 1, R 1 and R 3 is a hydrophilic side chain having an octanol/water coefficient (logK OW) of ≤ 2, wherein R 4, R 5, R 6, R 7, R 8, R 9 and R 10 are, independently of each other, selected from the group consisting of H; substituted or unsubstituted alkyl, cycloalkyl, alkenyl, cycloalkenyl, alkinyl, aryl, heterocycloalkyl, heteroaryl, halogen; -NO 2, -SO 3 -, -CN, -CH=CH-COOH, and -Y 3 -R 13 with Y 3 being -O-, -C(=O)- or -N(R 14)-, with R 13 and R 14 being, independently of each other, selected from the group consisting of unsubstituted or substituted, alkyl and aryl, and wherein said organic side chain is an, optionally substituted, alkyl, alkenyl, alkinyl, aryl, aralkyl, cycloalkyl, heterocycloalkyl, or heteroaryl side chain. X is -C(=O)-, -C(=S)-, or -S(=O) 2 -, R 1 is an organic side chain comprising at least 2 C-atoms if X is C(=O), and at least 1 C-atom if X is C(=S) or S(=O) 2, R 1 is an organic side chain comprising at least 2 C-atoms, R 3 is H or an organic side chain, wherein at least one of R 1, R 1 and R 3 is a hydrophilic side chain having an octanol/water coefficient (logK OW) of ≤ 2, wherein R 4, R 5, R 6, R 7, R 8, R 9 and R 10 are, independently of each other, selected from the group consisting of H; substituted or unsubstituted alkyl, cycloalkyl, alkenyl, cycloalkenyl, alkinyl, aryl, heterocycloalkyl, heteroaryl, halogen; -NO 2, -SO 3 -, -CN, -CH=CH-COOH, and -Y 3 -R 13 with Y 3 being -O-, -C(=O)- or -N(R 14)-, with R 13 and R 14 being, independently of each other, selected from the group consisting of unsubstituted or substituted, alkyl and aryl, and wherein said organic side chain is an, optionally substituted, alkyl, alkenyl, alkinyl, aryl, aralkyl, cycloalkyl, heterocycloalkyl, or heteroaryl side chain.
A preparation comprising purified recombinant blood coagulation factor IX (rFIX), wherein 35%-90% of the rFIX in the preparation is fully phosphorylated and sulfated, and wherein the rFIX is expressed in HEK293-derived cells.
A tire having a tread portion with a thickness of 15 mm or less, wherein the cap rubber layer forming the tread portion is formed from a rubber composition containing 40 parts by mass or more and 80 parts by mass or less of styrene-butadiene rubber with a styrene content of 25% by mass or less, in 100 parts by mass of the rubber component, and in addition to the rubber component, containing silica and carbon black; and having loss tangent 30°C tan δ of more than 0.18 measured under the conditions of temperature of 30°C, frequency of 10 Hz, initial strain of 5%, dynamic strain rate of 1%, and deformation mode: tensile; wherein the carbon black content is 15 parts by mass or more with respect to 100 parts by mass of the rubber component, and the ratio of the silica content to the carbon black content is 1 or more, wherein 100% modulus of the rubber composition constituting the cap rubber layer is more than 2.0 MPa, wherein the 100% modulus of the rubber composition constituting the cap rubber layer is determined by the method defined in the description. wherein the cap rubber layer forming the tread portion is formed from a rubber composition containing 40 parts by mass or more and 80 parts by mass or less of styrene-butadiene rubber with a styrene content of 25% by mass or less, in 100 parts by mass of the rubber component, and in addition to the rubber component, containing silica and carbon black; and having loss tangent 30°C tan δ of more than 0.18 measured under the conditions of temperature of 30°C, frequency of 10 Hz, initial strain of 5%, dynamic strain rate of 1%, and deformation mode: tensile; wherein the carbon black content is 15 parts by mass or more with respect to 100 parts by mass of the rubber component, and the ratio of the silica content to the carbon black content is 1 or more, having loss tangent 30°C tan δ of more than 0.18 measured under the conditions of temperature of 30°C, frequency of 10 Hz, initial strain of 5%, dynamic strain rate of 1%, and deformation mode: tensile; wherein the carbon black content is 15 parts by mass or more with respect to 100 parts by mass of the rubber component, and the ratio of the silica content to the carbon black content is 1 or more, wherein 100% modulus of the rubber composition constituting the cap rubber layer is more than 2.0 MPa, wherein the 100% modulus of the rubber composition constituting the cap rubber layer is determined by the method defined in the description.
Observation device, in particular a medical observation device, comprising: - an image capturing unit with at least one image sensor, preferably a stereo image capturing unit with two image sensors, - a display unit configured to display image data provided by the image capturing unit, - an image processing unit for image processing tasks, - a control unit with a multi-axis input module, and - a positioning drive (190, 192) for the image capturing unit, wherein image capturing parameters and display parameters are controllable via the input module, wherein the input module is operable in at least a first operating mode and a second operating mode, wherein in the first operating mode, direct control of image capturing parameters and display parameters is enabled, wherein the input module is actuable in the second operating mode to control the positioning drive (190, 192) to position the image capturing unit, and wherein the input module is configured as a single-hand input module and includes an actuating element (52, 90, 104) that is manipulable by an operator and that provides multiple degrees of freedom (80, 82, 84, 86; 80, 82, 98, 100) for inputs, characterized in that different axes of the positioning drive (190, 192) are controllable simultaneously by the input module, and the direct control of display parameters includes positioning a display image in a provided global capture image. - an image capturing unit with at least one image sensor, preferably a stereo image capturing unit with two image sensors, - a display unit configured to display image data provided by the image capturing unit, - an image processing unit for image processing tasks, - a control unit with a multi-axis input module, and - a positioning drive (190, 192) for the image capturing unit, wherein image capturing parameters and display parameters are controllable via the input module, wherein the input module is operable in at least a first operating mode and a second operating mode, wherein in the first operating mode, direct control of image capturing parameters and display parameters is enabled, wherein the input module is actuable in the second operating mode to control the positioning drive (190, 192) to position the image capturing unit, and wherein the input module is configured as a single-hand input module and includes an actuating element (52, 90, 104) that is manipulable by an operator and that provides multiple degrees of freedom (80, 82, 84, 86; 80, 82, 98, 100) for inputs, characterized in that different axes of the positioning drive (190, 192) are controllable simultaneously by the input module, and the direct control of display parameters includes positioning a display image in a provided global capture image.
An apparatus for containing one or more product units, the apparatus comprising: a first layer; a first plurality of terminals (108, 110; 402-i) that is arranged such that each terminal is in electrical communication with each other terminal of the first plurality thereof (108, 110; 402-i) through the first layer before and after formation of at least one opening in the first layer; and electronic circuitry (114, 404) that is operative for making pair-wise measurements of a first electrical parameter between each terminal and each other terminal of the first plurality of terminals (108, 110; 402-i), and providing a first signal based on a first finite change in the magnitude of the first electrical parameter characterized in that: the first layer is substantially continuous throughout a first region (118, 406), electrically conductive and does not comprise patterned electrical traces; and wherein the first plurality of terminals (108, 110; 402-i) is arranged around the perimeter of an area of the first layer such that the first electrical parameter can be measured. a first layer; a first plurality of terminals (108, 110; 402-i) that is arranged such that each terminal is in electrical communication with each other terminal of the first plurality thereof (108, 110; 402-i) through the first layer before and after formation of at least one opening in the first layer; and electronic circuitry (114, 404) that is operative for making pair-wise measurements of a first electrical parameter between each terminal and each other terminal of the first plurality of terminals (108, 110; 402-i), and providing a first signal based on a first finite change in the magnitude of the first electrical parameter characterized in that: the first layer is substantially continuous throughout a first region (118, 406), electrically conductive and does not comprise patterned electrical traces; and wherein the first plurality of terminals (108, 110; 402-i) is arranged around the perimeter of an area of the first layer such that the first electrical parameter can be measured. the first layer is substantially continuous throughout a first region (118, 406), electrically conductive and does not comprise patterned electrical traces; and wherein the first plurality of terminals (108, 110; 402-i) is arranged around the perimeter of an area of the first layer such that the first electrical parameter can be measured.
A device for combating the proliferation of aquatic larvae in receptacles liable to hold stagnant water, said receptacles comprising a wall delimiting a cavity and a gaping opening, the device comprising an element the shape of which is able to match, in whole or in part, that of the wall of said cavity and to close off said opening, said element being produced from a porous material permeable to air and water, characterised in that the material comprises a rubber aggregate and a synthetic binder.
A method for cutting structural members, such as legs, beams, I-beams or the like for supporting structures made of steel, concrete, steel and concrete, stone-like materials or the like, using at least one travelling wire having suitable cutting parts, which method comprises the following steps: a) the travelling wire is positioned with a certain inclination with respect to a general horizontal plane; b) a first cut in a transverse direction relative to the structural member, extending to a certain depth into said member, in such a way as to produce a first cut line; characterised by c) said travelling wire is rotated at least once about its own centre of symmetry to cut a second cut in a substantially longitudinal direction relative to said structural member, extending to a certain height of said member, in such a way as to produce at least two steps (6, 7) at two opposite points of said structural member; and d) third cut in a transverse direction relative to the structural member until the travelling wire emerges from said structural member in such a way as to produce a second cut line. a) the travelling wire is positioned with a certain inclination with respect to a general horizontal plane; b) a first cut in a transverse direction relative to the structural member, extending to a certain depth into said member, in such a way as to produce a first cut line; characterised by c) said travelling wire is rotated at least once about its own centre of symmetry to cut a second cut in a substantially longitudinal direction relative to said structural member, extending to a certain height of said member, in such a way as to produce at least two steps (6, 7) at two opposite points of said structural member; and d) third cut in a transverse direction relative to the structural member until the travelling wire emerges from said structural member in such a way as to produce a second cut line.
Air jet sieve with housing and at least one sieve which can be inserted into the housing, with a slotted nozzle underneath the sieve deck, a drive for the slotted nozzle, an air supply for the slotted nozzle as well as an air outlet duct leading through the housing and out of the space underneath the sieve deck, and a control unit which controls operation of the thus-formed sieving machine, characterised in that the sieving machine is equipped with a measuring sensor which permits triboelectric detection of the particles in the air flow.
A method for reducing one or more harmonics of at least one uniformity parameter in a cured tire (40, 400), comprising: receiving an ablation pattern for a bead of the tire (40, 400), the ablation pattern defining a desired ablation depth relative to an angular location around the bead and calculated to correct for one or more harmonics of at least one uniformity parameter for the tire (40, 400); identifying a plurality of addresses for the bead, each address being associated with a specific angular location on the bead of the tire (40, 400); analyzing the ablation pattern to determine a plurality of direct address commands to achieve the ablation pattern, the plurality of direct address commands specifying ablation parameters for a plurality of discrete ablation segments at one or more addresses along the bead of the tire (40, 400); each of the plurality of discrete ablation segments having similar ablation sensitivity characteristics, the discrete ablation segments being stacked into a plurality of discrete layers, the discrete ablation segments having similar ablation segment lengths; controlling an ablation device to selectively remove tire (40, 400) material from the bead in discrete ablation segments pursuant to the direct address commands to achieve the ablation pattern. receiving an ablation pattern for a bead of the tire (40, 400), the ablation pattern defining a desired ablation depth relative to an angular location around the bead and calculated to correct for one or more harmonics of at least one uniformity parameter for the tire (40, 400); identifying a plurality of addresses for the bead, each address being associated with a specific angular location on the bead of the tire (40, 400); analyzing the ablation pattern to determine a plurality of direct address commands to achieve the ablation pattern, the plurality of direct address commands specifying ablation parameters for a plurality of discrete ablation segments at one or more addresses along the bead of the tire (40, 400); each of the plurality of discrete ablation segments having similar ablation sensitivity characteristics, the discrete ablation segments being stacked into a plurality of discrete layers, the discrete ablation segments having similar ablation segment lengths; controlling an ablation device to selectively remove tire (40, 400) material from the bead in discrete ablation segments pursuant to the direct address commands to achieve the ablation pattern.
A method for recycling a mixture of textiles comprising natural cellulose fibers and man-made cellulose fibers, said method comprising the sequential steps: a. providing at least one textile material, wherein the at least one textile material comprises natural cellulose fibers and man-made cellulose fibers, b.mechanically disintegrating the material, c. treating the material to swell the cellulose fibers in an aqueous solution during a time in the interval 5 minutes to 24 hours, preferably 20 minutes to 120 minutes, under reducing conditions, wherein at least one reducing agent is present at least during a part of the swelling, wherein the pH is in the range 8-14, wherein the temperature is above 0 °C, d. performing at least one oxidative bleach, wherein the time for the at least one oxidative bleach in step d) and a concentration of at least one bleaching substance in step d) are adjusted so that the limiting viscosity number as determined by ISO 5351:2010 for the resulting material after step d) is reduced to a value in the interval 200-1200 ml/g. a. providing at least one textile material, wherein the at least one textile material comprises natural cellulose fibers and man-made cellulose fibers, b.mechanically disintegrating the material, c. treating the material to swell the cellulose fibers in an aqueous solution during a time in the interval 5 minutes to 24 hours, preferably 20 minutes to 120 minutes, under reducing conditions, wherein at least one reducing agent is present at least during a part of the swelling, wherein the pH is in the range 8-14, wherein the temperature is above 0 °C, d. performing at least one oxidative bleach,