mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a shaft furnace, in which an upper region of the shaft furnace is charged with raw materials which fall in the shaft furnace under the influence of gravity, some of the raw materials being melted and/or at least partially reduced under the action of the atmosphere prevailing inside the shaft furnace, and a treatment gas is introduced in a lower region of the shaft furnace via at least one lower introduction orifice and at least partially influences the atmosphere prevailing inside the shaft furnace, the introduction of the treatment gas being modulated dynamically in such a way that, during modulation, the operating variables, pressure p 1 and/or volume flow V̇ 1, are varied at least temporarily within a timespan of ≤ 40 s, characterized in that, via at least one additional orifice spaced apart from the lower introduction orifice, an additional gas is introduced, of which the operating variables, pressure p 2 and/or volume flow V̇ 2, are varied at least temporarily in such a way that the pressure p 1 and/or the volume flow V̇ 1 are at least partially increased in the interior of the shaft furnace, a spacing d between the lower introduction orifice and the additional orifice being, in relation to a height h between the lower introduction orifice and an upper outlet orifice of the shaft furnace, 0.1 ≤ d/h ≤ 1.0.
A cable breakout kit, comprising: a cable portion; a furcation portion comprising a fiber capsule port; an inner wall portion; and a fiber capsule cap dimensioned to mate with the inner wall portion and seated in the fiber capsule port; characterized in that the cable portion and the furcation portion are dimensioned to couple with one another, enclosing a furcation area; and wherein the inner wall portion and the fiber capsule cap enclose a fiber area within the furcation area. a cable portion; a furcation portion comprising a fiber capsule port; an inner wall portion; and a fiber capsule cap dimensioned to mate with the inner wall portion and seated in the fiber capsule port; characterized in that the cable portion and the furcation portion are dimensioned to couple with one another, enclosing a furcation area; and wherein the inner wall portion and the fiber capsule cap enclose a fiber area within the furcation area.
A device for manufacturing an optical preform by means of an internal vapour deposition process, the device comprising an energy source and a hollow substrate tube, which hollow substrate tube has a supply side and a discharge side, the energy source being moveable along a length of the hollow substrate tube, the device further comprising an elongation tube connected, in a substantially air-tight manner, to the hollow substrate tube at the discharge side thereof, wherein the hollow substrate tube extends into an interior of the elongation tube, thereby defining an overlapping region between said hollow substrate tube and said elongation tube, and in that an internal diameter of the elongation tube at said overlapping region is at least 0.5 millimeter larger than an external diameter of the hollow substrate tube at said overlapping region, and characterized in that the elongation tube comprises a hollow insertion tube, wherein an internal diameter of the hollow insertion tube is greater than or equal to an internal diameter of the hollow substrate tube.
Foundation wall element assembly comprising: a foot element, a leg element, and a panel element, wherein the leg element is mounted to the foot element, and a holding means (4a, 4b, 4c, 72) for receiving the bottom part of a panel element, for providing a room between the inside of the panel element and the outside of the leg element for receiving concrete filling, characterised in that the foot element comprises a first groove for receiving the bottom part of the leg element, and the holding means (4a, 4b, 4c, 72) comprises more than one second groove (4a, 4b, 4c) defining alternative positions for receiving the bottom part of a panel element for adapting to the required concrete filling thickness of the wall when arranged and filled. a foot element, a leg element, and a panel element, wherein the leg element is mounted to the foot element, and a holding means (4a, 4b, 4c, 72) for receiving the bottom part of a panel element, for providing a room between the inside of the panel element and the outside of the leg element for receiving concrete filling, characterised in that the foot element comprises a first groove for receiving the bottom part of the leg element, and the holding means (4a, 4b, 4c, 72) comprises more than one second groove (4a, 4b, 4c) defining alternative positions for receiving the bottom part of a panel element for adapting to the required concrete filling thickness of the wall when arranged and filled.
Method for synchronizing a feed voltage of a current-limited network former with a network voltage of an electrical energy supply network comprising further network formers (6, 8, 10, 12) with static characteristic curves (58, 64) and electrical consumers, - wherein a property of the feed voltage of the network former, selected from frequency, phase position and root-mean-square value, can be determined on the basis of a static characteristic curve (58,64) of the network former, - wherein the static characteristic curve (58,64) of the network former compares the selected property of the feed voltage of the network former to a feed power of the network former, - wherein the feed power of the network former is received by the electrical energy supply network at the feed voltage of the network former, characterised in that - the property of the feed voltage of the network former is adjusted to a value smaller than or equal to an actual value of the corresponding property of the network voltage resulting from the static characteristic curves (58, 64) of the further network formers (6, 8, 10, 12) when, due to a limit (I max) for the feed power of the network former, the corresponding property of the network voltage cannot be reached on the static characteristic curve belonging to the selected property of the feed voltage of the network former. - wherein a property of the feed voltage of the network former, selected from frequency, phase position and root-mean-square value, can be determined on the basis of a static characteristic curve (58,64) of the network former, - wherein the static characteristic curve (58,64) of the network former compares the selected property of the feed voltage of the network former to a feed power of the network former, - wherein the feed power of the network former is received by the electrical energy supply network at the feed voltage of the network former, characterised in that - the property of the feed voltage of the network former is adjusted to a value smaller than or equal to an actual value of the corresponding property of the network voltage resulting from the static characteristic curves (58, 64) of the further network formers (6, 8, 10, 12) when, due to a limit (I max) for the feed power of the network former, the corresponding property of the network voltage cannot be reached on the static characteristic curve belonging to the selected property of the feed voltage of the network former.
A lubricant manifold for gear system of a turbofan engine comprising: a base plate defining an inlet, an outlet and a plurality of open channels defining a first portion of a corresponding lubricant passage; a cover plate configured for attachment to the base plate, the cover plate forming a second portion of the corresponding lubricant passage; and characterized by an interlocking interface for securing the cover plate to the base plate, wherein the interlocking interface includes at least one tab defined on one of the base plate and the cover plate and at least one hook engaged to the at least on tab on the other of the base plate and the cover plate and wherein the at least one tab and at least one hook include a plurality of tabs engageable with a corresponding plurality of hooks, and wherein the plurality of hooks and plurality of tabs are disposed at intervals along the open channels. a base plate defining an inlet, an outlet and a plurality of open channels defining a first portion of a corresponding lubricant passage; a cover plate configured for attachment to the base plate, the cover plate forming a second portion of the corresponding lubricant passage; and characterized by an interlocking interface for securing the cover plate to the base plate, wherein the interlocking interface includes at least one tab defined on one of the base plate and the cover plate and at least one hook engaged to the at least on tab on the other of the base plate and the cover plate and wherein the at least one tab and at least one hook include a plurality of tabs engageable with a corresponding plurality of hooks, and wherein the plurality of hooks and plurality of tabs are disposed at intervals along the open channels.
A superconducting article, comprising: a first superconductive segment having a nominal thickness t n1, wherein the first superconductive segment comprises a first superconductive layer and a first substrate; a second superconductive segment having a nominal thickness t n2, wherein the second superconductive segment comprises a second superconductive layer and a second substrate; a joint region comprising a splice (206, 306) connecting the first and second superconductive segments together, the splice overlying portions of both the first and second superconductive segments along the joint region, the joint region having a thickness t jr, wherein t jr is not greater than at least one of 1.8t n1 and 1.8t n2; and a bond layer (25, 35) bonding the splice to the first and second superconductive segments, wherein the bond layer is provided between the splice and the first and second superconductive layers. a first superconductive segment having a nominal thickness t n1, wherein the first superconductive segment comprises a first superconductive layer and a first substrate; a second superconductive segment having a nominal thickness t n2, wherein the second superconductive segment comprises a second superconductive layer and a second substrate; a joint region comprising a splice (206, 306) connecting the first and second superconductive segments together, the splice overlying portions of both the first and second superconductive segments along the joint region, the joint region having a thickness t jr, wherein t jr is not greater than at least one of 1.8t n1 and 1.8t n2; and a bond layer (25, 35) bonding the splice to the first and second superconductive segments, wherein the bond layer is provided between the splice and the first and second superconductive layers.
A drug delivery system, comprising: an air pump (16, 84) adapted with a solenoid (17, 24, 98), at least one sensor (18, 19, 54, 74, 90) configured to detect breathing cycles of an anesthetized animal; characterized in that the drug delivery system further comprises: a drug delivery device adapted to said air pump (16, 84) and comprising a blunt cannula, wherein the cannula is configured to be positioned in a mouth of the animal, and a chamber comprising one or more valves for containing a powder drug composition; and a data acquisition board (22, 91) comprising an executable algorithm for analyzing and transmitting signals from said at least one sensor (18, 19, 54, 74, 90) and determining and displaying the animal's breathing pattern, wherein said executable algorithm contains instructions to actuate said solenoid (17, 24, 98) at a predetermined interval of a breathing cycle of said anesthetized animal. an air pump (16, 84) adapted with a solenoid (17, 24, 98), at least one sensor (18, 19, 54, 74, 90) configured to detect breathing cycles of an anesthetized animal; characterized in that the drug delivery system further comprises: a drug delivery device adapted to said air pump (16, 84) and comprising a blunt cannula, wherein the cannula is configured to be positioned in a mouth of the animal, and a chamber comprising one or more valves for containing a powder drug composition; and a data acquisition board (22, 91) comprising an executable algorithm for analyzing and transmitting signals from said at least one sensor (18, 19, 54, 74, 90) and determining and displaying the animal's breathing pattern, wherein said executable algorithm contains instructions to actuate said solenoid (17, 24, 98) at a predetermined interval of a breathing cycle of said anesthetized animal. a drug delivery device adapted to said air pump (16, 84) and comprising a blunt cannula, wherein the cannula is configured to be positioned in a mouth of the animal, and a chamber comprising one or more valves for containing a powder drug composition; and a data acquisition board (22, 91) comprising an executable algorithm for analyzing and transmitting signals from said at least one sensor (18, 19, 54, 74, 90) and determining and displaying the animal's breathing pattern, wherein said executable algorithm contains instructions to actuate said solenoid (17, 24, 98) at a predetermined interval of a breathing cycle of said anesthetized animal.
An illumination device comprising: a device housing; an illumination lamp installed to the device housing; a sensor for use in controlling the lighting operation of the illumination lamp; a light control circuit provided in the device housing and configured to control the illumination lamp based on an output signal of the sensor; a sensor attachment unit through which the sensor is detachably attached to the device housing; and a decoration member detachably attached to the sensor attachment unit, the decoration member serving to cover the sensor with a sensing unit (12a, 12b) of the sensor exposed to the outside when the sensor is attached to the sensor attachment unit, characterized in that the sensor attachment unit comprises a connector and the sensor comprises a connector; wherein the connectors (14c, 12c) are configured to keep the sensor attached to the sensor attachment unit, supply an electric current from the device housing to the sensor and transmit the output signal from the sensor to the lighting control circuit; and the decoration member further serves to hide the electrical connector of the sensor attachment unit when the sensor is not attached to the sensor attachment unit. a device housing; an illumination lamp installed to the device housing; a sensor for use in controlling the lighting operation of the illumination lamp; a light control circuit provided in the device housing and configured to control the illumination lamp based on an output signal of the sensor; a sensor attachment unit through which the sensor is detachably attached to the device housing; and a decoration member detachably attached to the sensor attachment unit, the decoration member serving to cover the sensor with a sensing unit (12a, 12b) of the sensor exposed to the outside when the sensor is attached to the sensor attachment unit, characterized in that the sensor attachment unit comprises a connector and the sensor comprises a connector; wherein the connectors (14c, 12c) are configured to keep the sensor attached to the sensor attachment unit, supply an electric current from the device housing to the sensor and transmit the output signal from the sensor to the lighting control circuit; and the decoration member further serves to hide the electrical connector of the sensor attachment unit when the sensor is not attached to the sensor attachment unit.
An unmanned rotorcraft, comprising: an airframe having a cylindrical shape that extends from a first end to a second end, the airframe configured to rotate about a rotor axis; a plurality of rotor blades that are coupled to the first end of the airframe in fixed positions relative to the airframe for rotation therewith about the rotor axis; a propulsion unit coupled to the airframe, the propulsion unit being located proximate the second end and including a propeller and a single motor that causes the propeller to rotate about a propeller axis; an actuator that is adapted to temporarily reorient the propulsion unit such that the propeller axis moves out of alignment with the rotor axis, wherein rotation of the propeller by the motor causes counter-rotation of the airframe and rotor blades; and wherein the propulsion unit is coupled to the airframe such that the propulsion unit is pivotable about a pivot axis by the actuator, wherein the the propulsion unit, including the single motor, is carried within the airframe and located axially between the rotor blades and the propeller. an airframe having a cylindrical shape that extends from a first end to a second end, the airframe configured to rotate about a rotor axis; a plurality of rotor blades that are coupled to the first end of the airframe in fixed positions relative to the airframe for rotation therewith about the rotor axis; a propulsion unit coupled to the airframe, the propulsion unit being located proximate the second end and including a propeller and a single motor that causes the propeller to rotate about a propeller axis; an actuator that is adapted to temporarily reorient the propulsion unit such that the propeller axis moves out of alignment with the rotor axis, wherein rotation of the propeller by the motor causes counter-rotation of the airframe and rotor blades; and wherein the propulsion unit is coupled to the airframe such that the propulsion unit is pivotable about a pivot axis by the actuator, wherein the the propulsion unit, including the single motor, is carried within the airframe and located axially between the rotor blades and the propeller.
An electronic device comprising: a camera that captures an image; a display that presents the image; a processor; a memory storing code executable by the processor to perform: receiving a given equipment reference code for a given equipment instance; identifying one or more equipment tags in the image, wherein each equipment tag corresponds to a unique equipment reference code; identifying a given equipment tag corresponding to the given equipment reference code in the image, wherein the given equipment tag is associated with code data that includes a tag location of the given equipment tag; emphasizing the given equipment instance in the image presented on the display, wherein the processor further performs determining a location of the electronic device based on the tag location of the given equipment tag, wherein determining the location of the electronic device comprises adjusting the location of the electronic device based on the image. a camera that captures an image; a display that presents the image; a processor; a memory storing code executable by the processor to perform: receiving a given equipment reference code for a given equipment instance; identifying one or more equipment tags in the image, wherein each equipment tag corresponds to a unique equipment reference code; identifying a given equipment tag corresponding to the given equipment reference code in the image, wherein the given equipment tag is associated with code data that includes a tag location of the given equipment tag; emphasizing the given equipment instance in the image presented on the display, wherein the processor further performs determining a location of the electronic device based on the tag location of the given equipment tag, wherein determining the location of the electronic device comprises adjusting the location of the electronic device based on the image. receiving a given equipment reference code for a given equipment instance; identifying one or more equipment tags in the image, wherein each equipment tag corresponds to a unique equipment reference code; identifying a given equipment tag corresponding to the given equipment reference code in the image, wherein the given equipment tag is associated with code data that includes a tag location of the given equipment tag; emphasizing the given equipment instance in the image presented on the display, wherein the processor further performs determining a location of the electronic device based on the tag location of the given equipment tag, wherein determining the location of the electronic device comprises adjusting the location of the electronic device based on the image.
A pressure vessel comprising: a front end plate and a rear end plate; a plurality of open-ended vessel structures (2A, 2B), constructed of fibre-reinforced polymer matrix composite material, the open-ended vessel structures (2A, 2B) positioned adjacent to one another so that their longitudinal axes are parallel to a longitudinal direction extending between the front end plate and the rear end plate, and the open-ended vessel structures (2A, 2B) being closed by the front end plate and the rear end plate; and an outer reinforcement comprising polymer matrix composite material with continuous fibres extending longitudinally around the pressure vessel to secure the front end plate and the rear end plate to the vessel structures (2A, 2B); wherein at least one of the vessel structures (2A, 2B) has a partially curved cross section in a plane perpendicular to its longitudinal axis, such that one or more crevices are formed between the vessel structures (2A, 2B), running longitudinally between the front end plate and the rear end plate; and wherein the front end plate and the rear end plate are each shaped such that the outer reinforcement at least partially fills the one or more crevices between the vessel structures (2A, 2B). a front end plate and a rear end plate; a plurality of open-ended vessel structures (2A, 2B), constructed of fibre-reinforced polymer matrix composite material, the open-ended vessel structures (2A, 2B) positioned adjacent to one another so that their longitudinal axes are parallel to a longitudinal direction extending between the front end plate and the rear end plate, and the open-ended vessel structures (2A, 2B) being closed by the front end plate and the rear end plate; and an outer reinforcement comprising polymer matrix composite material with continuous fibres extending longitudinally around the pressure vessel to secure the front end plate and the rear end plate to the vessel structures (2A, 2B); wherein at least one of the vessel structures (2A, 2B) has a partially curved cross section in a plane perpendicular to its longitudinal axis, such that one or more crevices are formed between the vessel structures (2A, 2B), running longitudinally between the front end plate and the rear end plate; and wherein the front end plate and the rear end plate are each shaped such that the outer reinforcement at least partially fills the one or more crevices between the vessel structures (2A, 2B).
A composition comprising a biocompatible small molecule crosslinker with a molecular weight of 2000 or less, the crosslinker having n crosslinker functional groups, wherein n is two or more, and wherein the crosslinker functional groups are either electrophilic or nucleophilic, in combination with a synthetic biocompatible functional polymer with a molecular weight of at least about 7 times more than the crosslinker, the functional polymer having m functional polymer functional groups, wherein m is two or more and the sum of n and m is five or more, and wherein the functional polymer functional groups ame nucleophilic if the crosslinker functional groups are electrophilic, and the functional polymer functional groups are electrophilic if the crosslinker functional groups are nucleophilic for use in a method wherein the method comprises introducing into tissue comprising submucosa of a polyp said composition in combination with said synthetic biocompatible functional polymer and permitting the crosslinker and functional polymer to react in the submucosa of the polyp to form a hydrogel; and removing the polyp.