mhurhangee/ep-ind-claims huggingface dataset:
Strip, sheet or blank suitable for hot forming at a temperature of 700° C or above, comprising a substrate of hot formable steel, optionally coated with an active corrosion protective coating, characterised in that the optionally coated steel substrate is provided with a ceramic based coating having a thickness of at most 25 micron on the external layer, wherein the ceramic based coating comprises 5 - 80% SiO 2, 1 - 30% Al 2 O 3 and 1 - 30% MgO 2, and optionally max 5% CaO, max 10% Fe 2 O 3 and max 10% MnO 2.
Load-carrying article comprising a dorsal panel supporting a load and two carrying means (3a, 3b), the ends (31a, 31b, 32a, 32b) of each carrying means being connected to the dorsal panel, characterized in that each carrying means (3a, 3b) comprises an extendable region located at the anterior portion of the torso of the user, the extendable region having anisotropic expendability properties such that the transverse tensile force required to obtain an elongation of 25% of a panel (35a, 35b) forming the extendable region is less than the longitudinal tensile force required to obtain an elongation of 25% of this panel (35a, 35b).
An aircraft capable of fixed-wing and rotor flight modes, the aircraft comprising: a fuselage wherein the fuselage includes a front portion and a rear portion and wherein the fuselage includes a longitudinal axis extending through the front portion and the rear portion; a wing coupled to the fuselage; a first support boom coupled to the wing and a second support boom coupled to the wing wherein the fuselage is positioned equidistant between the first support boom and the second support boom and wherein the first support boom and the second support boom are parallel to the longitudinal axis; a rotor array distributed among the first support boom and the second support boom, wherein the rotor array provides substantially vertical thrust, wherein the rotor array includes two or more rotor pairs (410,510,610) and wherein each rotor pair includes a first rotor and a second rotor; and a hybrid propulsion system configured to provide thrust substantially aligned with the longitudinal axis and to provide supplemental electrical power to the rotor array, characterized in that each rotor in one rotor pair is mounted tilted away at an equal but opposite fore and aft angle from a vertical axis parallel to a vertical axis of the aircraft and in that each rotor in the other rotor pairs (410,610) is mounted tilted away at an equal but opposite left and right angle from a vertical axis parallel to the vertical axis of the aircraft, the vertical axis of the aircraft being perpendicular to a lateral axis of the aircraft and to the longitudinal axis. a fuselage wherein the fuselage includes a front portion and a rear portion and wherein the fuselage includes a longitudinal axis extending through the front portion and the rear portion; a wing coupled to the fuselage; a first support boom coupled to the wing and a second support boom coupled to the wing wherein the fuselage is positioned equidistant between the first support boom and the second support boom and wherein the first support boom and the second support boom are parallel to the longitudinal axis; a rotor array distributed among the first support boom and the second support boom, wherein the rotor array provides substantially vertical thrust, wherein the rotor array includes two or more rotor pairs (410,510,610) and wherein each rotor pair includes a first rotor and a second rotor; and a hybrid propulsion system configured to provide thrust substantially aligned with the longitudinal axis and to provide supplemental electrical power to the rotor array, characterized in that each rotor in one rotor pair is mounted tilted away at an equal but opposite fore and aft angle from a vertical axis parallel to a vertical axis of the aircraft and in that each rotor in the other rotor pairs (410,610) is mounted tilted away at an equal but opposite left and right angle from a vertical axis parallel to the vertical axis of the aircraft, the vertical axis of the aircraft being perpendicular to a lateral axis of the aircraft and to the longitudinal axis.
An imaging optical system comprising: a plurality of optical systems each including a plurality of optical members; in the order from an object side to an image side; a front group (AF; BF); a first reflection member (AP1; BP1), disposed for each one of the optical systems, configured to reflect light when the light passing through the plurality of optical members; a variable aperture member (AS; BS); a second reflection member (AP2; BP2); the light path is reflected by each of the first reflection member and the second reflection member by 90 degrees, a rear group (AR; BR); and the variable aperture member having an opening disposed at an image sensor side when viewed from the first reflection member, the variable aperture member configured to change a size of the opening through which the light reflected from the first reflection member passes through, and at least a part of the variable aperture member is disposed at a position lying along an optical axis direction, in a dead space (L1AREA) of a first lens, disposed at the most object side in the plurality of optical members, wherein the variable aperture member is parallel with the optical axis of the rear group (AR; BR). a front group (AF; BF); a first reflection member (AP1; BP1), disposed for each one of the optical systems, configured to reflect light when the light passing through the plurality of optical members; a variable aperture member (AS; BS); a second reflection member (AP2; BP2); the light path is reflected by each of the first reflection member and the second reflection member by 90 degrees, a rear group (AR; BR); and the variable aperture member having an opening disposed at an image sensor side when viewed from the first reflection member, the variable aperture member configured to change a size of the opening through which the light reflected from the first reflection member passes through, and at least a part of the variable aperture member is disposed at a position lying along an optical axis direction, in a dead space (L1AREA) of a first lens, disposed at the most object side in the plurality of optical members, wherein the variable aperture member is parallel with the optical axis of the rear group (AR; BR).
A method for regenerating amorphous iron oxide hydroxide after being used as a desulfurizer, the method comprising the following steps: use of a dried composition comprising amorphous iron oxide hydroxide as desulfurizer to form a waste mixture; washing the waste mixture obtained in step with water and grinding the waste mixture in the presence of water using a wet ball mill into waste powder particles of size 100-400 mesh; preparing said waste powder obtained in step into an aqueous suspension wherein the weight proportion of solid in said suspension is 5-30%, and charging the suspension with a gas containing oxygen to obtain a slurry comprising amorphous iron oxide hydroxide and elemental sulfur; and, either placing said slurry resulting from step into a flotation tank and charging the slurry with air so that the said elemental sulfur floats and the amorphous iron oxide hydroxide precipitates, or placing a solid resulting from filtering said slurry from step into a flotation tank, adding water to form a further slurry and charging the further slurry with air so that the elemental sulfur floats and the amorphous iron oxide hydroxide precipitates, or filtering said slurry resulting from step to yield a solid and extracting said elemental sulfur from said solid with a solvent to yield amorphous iron oxide hydroxide. use of a dried composition comprising amorphous iron oxide hydroxide as desulfurizer to form a waste mixture; washing the waste mixture obtained in step with water and grinding the waste mixture in the presence of water using a wet ball mill into waste powder particles of size 100-400 mesh; preparing said waste powder obtained in step into an aqueous suspension wherein the weight proportion of solid in said suspension is 5-30%, and charging the suspension with a gas containing oxygen to obtain a slurry comprising amorphous iron oxide hydroxide and elemental sulfur; and, either placing said slurry resulting from step into a flotation tank and charging the slurry with air so that the said elemental sulfur floats and the amorphous iron oxide hydroxide precipitates, or placing a solid resulting from filtering said slurry from step into a flotation tank, adding water to form a further slurry and charging the further slurry with air so that the elemental sulfur floats and the amorphous iron oxide hydroxide precipitates, or filtering said slurry resulting from step to yield a solid and extracting said elemental sulfur from said solid with a solvent to yield amorphous iron oxide hydroxide.
A composition, comprising a melt processable semicrystalline aromatic polyetherketone polymer according to formula: wherein Cp is a phthalazinone unit of formula; Q is a biphenol unit of formula; Z is an aromatic ketone unit of formula or; b is a value of 0 through 1 x is a value of at least 1; and y is a value of at least 1; and wherein x and y are such that the molar ratio of Q to Cp is between about 30/70 and 90/10, and wherein the melt processable semicrystalline aromatic polyetherketone polymer has an enthalpy of melting endotherm of between 5.0 J/g and 26.0 J/g. wherein Cp is a phthalazinone unit of formula; Q is a biphenol unit of formula; Z is an aromatic ketone unit of formula or; b is a value of 0 through 1 x is a value of at least 1; and y is a value of at least 1; and
A support system comprising: a bladder, the bladder comprising: a first flexible sheet and a second flexible sheet, the first and second flexible sheets bonded together at a seam, wherein the first and second flexible sheets and the seam cooperate to define an inflatable compartment, the inflatable compartment defining a plurality of inflatable cells, each of the plurality of inflatable cells defining a corresponding contact node; an envelope enclosing the bladder, the envelope comprising a first sheet and a second sheet bonded to the first sheet, thereby defining an interior region of the envelope; a pump; a valve system operable to enable fluid communication of an outlet of the pump with the inflatable compartment or with an atmosphere surrounding the support system; and a controller operable to control valves of the valve system, characterized in that the inflatable compartment and the plurality of inflatable cells are selectively inflatable and the pump is coupled in fluid communication with the interior region of said envelope, the pump configured to selectively remove air from the interior region of the envelope and thereby cause the first sheet and the second sheet of the envelope to selectively conform to surfaces of the bladder and the valve system is operable to enable selective fluid communication of an inlet of the pump with the interior region of the envelope.
An electronic apparatus for determining validity of touch key input, the electronic apparatus comprising: a display formed on a front surface of the electronic apparatus enclosed by a black matrix region; a plurality of capacitive touch keys (122a-b, 1221) inside the black matrix region, and configured to sense an input; a plurality of capacitive dummy keys (123a-d, 1222) inside the black matrix region, and configured to sense the input; and wherein the electronic apparatus is configured such that when a first touch key of the plurality of capacitive touch keys (122a-b, 1221) is input the a first dummy key (123a, 123b) of the plurality of capacitive dummy keys (123a-d, 1222) is input, the electronic apparatus identifies that a touch key input is invalid; and when the first touch key is input and a second dummy key (123c, 123d) of the plurality of capacitive dummy keys (123a-d, 1222) is input, the electronic apparatus identifies that the touch key input is valid; wherein the electronic apparatus performs a function corresponding to the first touch key if the touch key input is valid, wherein the first dummy key (123a, 123b) is located adjacent to the first touch key and wherein the second dummy key (123c, 123d) is not adjacent to the first touch key, wherein each of the plurality of capacitive dummy keys key (123a-d, 1222) is positioned to enclose the respective touch key (122a-b, 1221) and comprises at least one transmission channel line and a plurality of reception channel lines, and wherein the plurality of reception channel lines are arranged at decreasing intervals toward the respective touch key (122a-b, 1221). a display formed on a front surface of the electronic apparatus enclosed by a black matrix region; a plurality of capacitive touch keys (122a-b, 1221) inside the black matrix region, and configured to sense an input; a plurality of capacitive dummy keys (123a-d, 1222) inside the black matrix region, and configured to sense the input; and wherein the electronic apparatus is configured such that when a first touch key of the plurality of capacitive touch keys (122a-b, 1221) is input the a first dummy key (123a, 123b) of the plurality of capacitive dummy keys (123a-d, 1222) is input, the electronic apparatus identifies that a touch key input is invalid; and when the first touch key is input and a second dummy key (123c, 123d) of the plurality of capacitive dummy keys (123a-d, 1222) is input, the electronic apparatus identifies that the touch key input is valid; wherein the electronic apparatus performs a function corresponding to the first touch key if the touch key input is valid, wherein the first dummy key (123a, 123b) is located adjacent to the first touch key and wherein the second dummy key (123c, 123d) is not adjacent to the first touch key, wherein each of the plurality of capacitive dummy keys key (123a-d, 1222) is positioned to enclose the respective touch key (122a-b, 1221) and comprises at least one transmission channel line and a plurality of reception channel lines, and wherein the plurality of reception channel lines are arranged at decreasing intervals toward the respective touch key (122a-b, 1221).
A method for operating a smart doorbell device (100; 201), the method comprising: measuring, using a temperature sensor of the smart doorbell device (100; 201), a first measured temperature; determining, by the smart doorbell device (100; 201), that the first measured temperature has crossed a first predefined temperature threshold; in response to determining that the first measured temperature has crossed the first predefined temperature threshold, altering operation of a component (125, 135, 155; 405, 435) of the smart doorbell device (100; 201) such that user-facing functionality of the smart doorbell device (100; 201) is unchanged, wherein: altering the operation of the component (125, 135, 155; 405, 435) of the smart doorbell device (100; 201) causes the component (125, 135, 155; 405, 435) to generate more heat or less heat; measuring, using the temperature sensor of the smart doorbell device (100; 201), a second measured temperature; determining, by the smart doorbell device (100; 201), that the second measured temperature has crossed a second predefined temperature threshold; and in response to determining that the second measured temperature has crossed the second predefined temperature threshold, altering operation of the smart doorbell device (100; 201) such that a chime that is electrically coupled to the smart doorbell device (100; 201) is not sounded in response to actuation of a doorbell, but that a notification of the actuation of the doorbell is wirelessly transmitted by the smart doorbell device (100; 201). measuring, using a temperature sensor of the smart doorbell device (100; 201), a first measured temperature; determining, by the smart doorbell device (100; 201), that the first measured temperature has crossed a first predefined temperature threshold; in response to determining that the first measured temperature has crossed the first predefined temperature threshold, altering operation of a component (125, 135, 155; 405, 435) of the smart doorbell device (100; 201) such that user-facing functionality of the smart doorbell device (100; 201) is unchanged, wherein: altering the operation of the component (125, 135, 155; 405, 435) of the smart doorbell device (100; 201) causes the component (125, 135, 155; 405, 435) to generate more heat or less heat; measuring, using the temperature sensor of the smart doorbell device (100; 201), a second measured temperature; determining, by the smart doorbell device (100; 201), that the second measured temperature has crossed a second predefined temperature threshold; and in response to determining that the second measured temperature has crossed the second predefined temperature threshold, altering operation of the smart doorbell device (100; 201) such that a chime that is electrically coupled to the smart doorbell device (100; 201) is not sounded in response to actuation of a doorbell, but that a notification of the actuation of the doorbell is wirelessly transmitted by the smart doorbell device (100; 201).
A top floor for mounting on top of a floor of a vehicle, wherein the top floor has cavities that house arrestable rollers supporting safety straps for fixing the wheelchair or wheelchairs in position on the top floor, characterized in that the top floor comprises a frame and an open U-profile or U-profiles consisting of a bottom wall and two oppositely arranged upstanding sidewalls on the bottom wall only, which open U-profile or U-profiles provide the cavity or cavities which house the rollers, wherein said U-profiles are mounted on said frame comprising longitudinal runners and transversal girders to provide the top floor with longitudinal and transversal rigidity.
A protein having endoglucanase activity which comprises an amino acid sequence having at least 96%, preferably at least 97%, more preferably at least 98%, even more preferably at least 99%, such as at least 99.5% identity to SEQ. ID NO.: 2, wherein the protein shows at least 90% residual substrate conversion capacity at temperature 60°C when incubation is done for one hour.
An impeller comprising: a hub; and a first blade disposed on the hub, characterised in that the first blade is composed of a plurality of bladelets, wherein each bladelet has a root and a tip, and further wherein each bladelet is movable between a deployed state in which the tip thereof is relatively further from the hub and a non-deployed state in which the tip is relatively closer to the hub. a hub; and a first blade disposed on the hub, characterised in that the first blade is composed of a plurality of bladelets, wherein each bladelet has a root and a tip, and further wherein each bladelet is movable between a deployed state in which the tip thereof is relatively further from the hub and a non-deployed state in which the tip is relatively closer to the hub.
A lighting module assembly (1000; 100) comprising: - a stack of optical elements comprising a diffuser (318, 418, 518, 618, 1002), alight guide plate (317, 417, 517, 617, 1003), and a reflector, - a plurality of elongated arms (1010,1020,1030, 1040; 10, 20, 30, 40) forming a frame for supporting the stack of optical elements, at least one elongated arm (1010, 1020, 1030, 1040; 10, 20, 30, 40) having a cavity (1015; 15; 25) extending in an elongation direction of the elongated arm, and - at least one lighting element (1090; 90), wherein the cavity (1015; 15; 25) is arranged for receiving the at least one lighting element (1090; 90) and for directing the light of the lighting element (1090; 90), in use, to the stack of optical elements, and each elongated arm is formed by a first elongated arm part (1011; 11; 21), wherein at least one first elongated arm part (1011; 11; 21) is integrally formed with at least one of the diffuser (318, 418, 518, 618, 1002), and the light guide plate (317, 417, 517, 617, 1003). - a stack of optical elements comprising a diffuser (318, 418, 518, 618, 1002), alight guide plate (317, 417, 517, 617, 1003), and a reflector, - a plurality of elongated arms (1010,1020,1030, 1040; 10, 20, 30, 40) forming a frame for supporting the stack of optical elements, at least one elongated arm (1010, 1020, 1030, 1040; 10, 20, 30, 40) having a cavity (1015; 15; 25) extending in an elongation direction of the elongated arm, and - at least one lighting element (1090; 90), wherein
An apparatus for detecting and identifying hazardous objects in electric fields comprising: two or more sensor probes (2702, 2704, 3102, 3104) configured to be mounted on a mobile vehicle and spaced apart from one another, wherein each sensor probe of the two or more sensor probes is configured to generate a signal corresponding to an electrical field; a processor, coupled to the two or more sensor probes, configured to process the signals from the two or more sensor probes to generate at least one processed signal based on a distance between at least two sensor probes of the two or more sensor probes; and an indicator, coupled to the processor for providing, based on the at least one processed signal, an indication of a hazardously energized object in the electric field, wherein processing the signals from the two or more sensor probes comprises adding a first signal from a first sensor probe of the two or more sensor probes and a second signal from a second sensor probe of the two or more sensor probes, characterized in that at least one of the first signal or the second signal is, prior to the addition of the first signal and the second signal, time-shifted by an amount commensurate with a distance between the first and the second sensor probes. two or more sensor probes (2702, 2704, 3102, 3104) configured to be mounted on a mobile vehicle and spaced apart from one another, wherein each sensor probe of the two or more sensor probes is configured to generate a signal corresponding to an electrical field; a processor, coupled to the two or more sensor probes, configured to process the signals from the two or more sensor probes to generate at least one processed signal based on a distance between at least two sensor probes of the two or more sensor probes; and an indicator, coupled to the processor for providing, based on the at least one processed signal, an indication of a hazardously energized object in the electric field, wherein processing the signals from the two or more sensor probes comprises adding a first signal from a first sensor probe of the two or more sensor probes and a second signal from a second sensor probe of the two or more sensor probes, characterized in that at least one of the first signal or the second signal is, prior to the addition of the first signal and the second signal, time-shifted by an amount commensurate with a distance between the first and the second sensor probes.