mhurhangee/ep-ind-claims huggingface dataset:
A hydrogen gas burner structure comprising: a first cylinder tube of which a tip is open, an inside of the first cylinder tube being configured such that hydrogen gas flows toward the tip of the first cylinder tube; a second cylinder tube disposed outside the first cylinder tube concentrically with the first cylinder tube, a space between the first cylinder tube and the second cylinder tube being configured such that a first combustion-supporting gas containing oxygen gas, for primary combustion of the hydrogen gas, flows toward a tip of the second cylinder tube; a third cylinder tube disposed outside the second cylinder tube concentrically with the first cylinder tube and the second cylinder tube, a space between the second cylinder tube and the third cylinder tube being configured such that a second combustion-supporting gas containing oxygen gas, for secondary combustion of the hydrogen gas, flows toward a tip of the third cylinder tube; and an ignition device disposed inside the second cylinder tube, the ignition device being configured to ignite mixed gas obtained by mixing the hydrogen gas and the first combustion-supporting gas with each other, wherein the tip of the first cylinder tube is located upstream of the tips (21, 31) of the second and third cylinder tubes (20, 30) in a gas flow direction in which the hydrogen gas and the first combustion-supporting gas and the second combustion-supporting gas flow; characterised in that: the tip of the third cylinder tube is located upstream of the tip of the second cylinder tube in the gas flow direction. a first cylinder tube of which a tip is open, an inside of the first cylinder tube being configured such that hydrogen gas flows toward the tip of the first cylinder tube; a second cylinder tube disposed outside the first cylinder tube concentrically with the first cylinder tube, a space between the first cylinder tube and the second cylinder tube being configured such that a first combustion-supporting gas containing oxygen gas, for primary combustion of the hydrogen gas, flows toward a tip of the second cylinder tube; a third cylinder tube disposed outside the second cylinder tube concentrically with the first cylinder tube and the second cylinder tube, a space between the second cylinder tube and the third cylinder tube being configured such that a second combustion-supporting gas containing oxygen gas, for secondary combustion of the hydrogen gas, flows toward a tip of the third cylinder tube; and an ignition device disposed inside the second cylinder tube, the ignition device being configured to ignite mixed gas obtained by mixing the hydrogen gas and the first combustion-supporting gas with each other, wherein the tip of the first cylinder tube is located upstream of the tips (21, 31) of the second and third cylinder tubes (20, 30) in a gas flow direction in which the hydrogen gas and the first combustion-supporting gas and the second combustion-supporting gas flow; characterised in that: the tip of the third cylinder tube is located upstream of the tip of the second cylinder tube in the gas flow direction.
A composition comprising at least one defoamer mixture comprising (i) at least one oil selected from aromatics-free white oils and natural fatty acid oils and (ii) hydrophobic particles, preferably wax particles or hydrophobized silica particles; at least one di- or monoalkyl sulfosuccinate, where the alkyl groups each have at least 9 carbon atoms; at least one ethylene oxide/propylene oxide block copolymer having a molecular weight of 1000 to 3000 and an ethylene oxide proportion of 10% to 40% by weight, based on the block copolymer. at least one defoamer mixture comprising (i) at least one oil selected from aromatics-free white oils and natural fatty acid oils and (ii) hydrophobic particles, preferably wax particles or hydrophobized silica particles; at least one di- or monoalkyl sulfosuccinate, where the alkyl groups each have at least 9 carbon atoms; at least one ethylene oxide/propylene oxide block copolymer having a molecular weight of 1000 to 3000 and an ethylene oxide proportion of 10% to 40% by weight, based on the block copolymer.
A method for manufacturing in vitro vascularized tissues, comprising: supplying a hydrogel mixed with vascularized tissue cells in a container for preparation of tissues; submerging a collection tip having vascular cells adhered thereto in the hydrogel; curing the hydrogel while submerging the collection tip therein; and supplying a cell culture solution to an upper side of the hydrogel. supplying a hydrogel mixed with vascularized tissue cells in a container for preparation of tissues; submerging a collection tip having vascular cells adhered thereto in the hydrogel; curing the hydrogel while submerging the collection tip therein; and supplying a cell culture solution to an upper side of the hydrogel.
A method for producing hydrogen gas comprising the steps of: (a) reacting steel slags containing wüstite with liquid water under pressure defined to maintain the water in a liquid state at a temperature ranging from 150°C to 500°C; (b) cooling down the reaction product of step (a) to separate hydrogen gas from water steam; (c) collecting hydrogen gas; the method being performed without adding catalysts. (a) reacting steel slags containing wüstite with liquid water under pressure defined to maintain the water in a liquid state at a temperature ranging from 150°C to 500°C; (b) cooling down the reaction product of step (a) to separate hydrogen gas from water steam; (c) collecting hydrogen gas;
Stand sleeve for an inner-pressure-resistant plastic container, in particular for a plastic aerosol container, said stand sleeve comprising a base part which comprises a stand surface, and a jacket which is closed in the peripheral direction, wherein the jacket is designed for a non-positive connection, wherein the base part and the jacket are designed as one piece with one another and are manufactured in a stretch blow moulding method, and that the jacket is designed for the non-positive connection to the outer wall in the proximity of the base of an inner-pressure-resistant plastic container, characterized in that the jacket comprises at least one stretch fold which extends essentially in an axial direction.
An actuating drive for a flap of an item of furniture, having at least one actuating arm mounted pivotably between a closed position and an open position for moving the flap, a spring device for applying a force to the actuating arm, and a transmission mechanism for transmitting a force from the spring device to the actuating arm, characterized in that a shifting device is provided by which the transmission mechanism is adjustable between at least two operating positions, wherein in a first operating position, the spring device acts on the actuating arm in an open position immediately preceding the closed position with a closing force in the direction of the closed position, and wherein in a second operating position, the spring device exerts a force acting in the direction of the open position in said immediately preceding open position of the actuating arm, wherein the transmission mechanism includes at least two levers (18, 30) connected to one another by a hinge axis member, and the position of the hinge axis member can be adjusted by the shifting device, wherein one of the levers has a, preferably moving, axis member and the other lever has an axis member which is preferably fixed with respect to the housing, wherein by the shifting device, the position of the hinge axis member relative to a force operating line, which corresponds to a notional connecting line between the one axis member and the other axis member, can be adjusted in a direction towards to and away from the force operating line.
A cable closure, having a housing, which delimits an interior of the cable closure and seals off the cable closure toward the outside, the housing comprising a covering body, the covering body comprises shells (11, 12) and provides on mutually opposite sides (15, 16) of the same cable insertion regions for inserting cables into the interior of the cable closure and/or for passing cables out of the interior of the cable closure, wherein compressible and/or deformable sealing elements (23, 24) are positioned at the mutually opposite sides (15, 16) of the covering body in the region of the cable insertion regions of the shells (11, 12), wherein each of the sealing elements (23, 24) is positioned between barrier walls (25, 26) of the respective shell (11, 12), namely between a barrier wall facing the interior of the cable closure and a barrier wall remote from the interior of the cable closure, and wherein at least the barrier walls of the shells (11, 12) facing the interior of the cable closure comprise in the region of each cable insertion region spring elements (35, 36, 36') with resilient fingers (37, 38) or flaps, whereby the resilient fingers (37, 38) or flaps of the spring elements (35, 36) are embedded in the respective sealing element (23, 24) positioned between the respective barrier wall facing the interior of the cable closure and the respective barrier wall remote from the interior of the cable closure, characterized in that in the region of each of the mutually opposite sides (15, 16) of a first one of the shells of the covering body the distance (x) between the respective barrier wall facing the interior of the cable closure and the respective barrier wall remote from the interior of the cable closure is smaller than the respective distance (y) between the barrier walls (25, 26) in the region of each of the mutually opposite sides (15, 16) of a second one of the shells of the covering body, and each barrier wall, namely a second segment of the same, of the second one of the shells facing the interior of the cable closure comprises between two adjacent spring elements (36, 36') a protrusion being embedded in the respective sealing element positioned between the respective barrier wall facing the interior of the cable closure and the respective barrier wall remote from the interior of the cable closure.
A system comprising a processing system (30, 30', 200, 300) for processing objects (54, 84, 87, 90, 92) using a programmable motion device (40, 210), said processing system comprising: a programmable motion device (40, 210) at a processing section (36, 36', 202, 302) including an end effector for grasping and moving a selected object from a plurality of objects (54, 84, 87, 90, 92); characterized in the processing system (30, 30', 200, 300) further comprising: a movable carriage for receiving the selected object from the end effector of the programmable motion device (40, 210), and for carrying the selected object to one of the plurality of destination containers (46, 51); and a destination container displacement system for urging a selected destination container (46, 51) onto an output conveyor (48, 348), the processing system (30, 30', 200, 300) further comprising inner conveyors on which the plurality of destination containers (46, 51) ride, which are gravity biased sloping downward with the lower end biased toward the processing section, and the processing system (30, 30', 200, 300) further comprising an output conveyor (48, 348), wherein each destination container (46, 51) is provided adjacent the output conveyor (48, 348). a movable carriage for receiving the selected object from the end effector of the programmable motion device (40, 210), and for carrying the selected object to one of the plurality of destination containers (46, 51); and a destination container displacement system for urging a selected destination container (46, 51) onto an output conveyor (48, 348), the processing system (30, 30', 200, 300) further comprising inner conveyors on which the plurality of destination containers (46, 51) ride, which are gravity biased sloping downward with the lower end biased toward the processing section, and the processing system (30, 30', 200, 300) further comprising an output conveyor (48, 348), wherein each destination container (46, 51) is provided adjacent the output conveyor (48, 348).
A cushioning element for an article of footwear, the cushioning element comprising: a first injection molded foam component having an exterior surface, the foam component comprising a foamed first thermoplastic composition comprising a first thermoplastic copolyester elastomer having a multicellular open cell foam structure; and a polymeric layer comprising a second thermoplastic composition comprising a second thermoplastic polyurethane elastomer, and the polymeric layer is disposed on at least a portion of the exterior surface of the first foam component; wherein the first thermoplastic composition is structurally different than the second thermoplastic composition. a first injection molded foam component having an exterior surface, the foam component comprising a foamed first thermoplastic composition comprising a first thermoplastic copolyester elastomer having a multicellular open cell foam structure; and a polymeric layer comprising a second thermoplastic composition comprising a second thermoplastic polyurethane elastomer, and the polymeric layer is disposed on at least a portion of the exterior surface of the first foam component; wherein the first thermoplastic composition is structurally different than the second thermoplastic composition.
A transconductance circuit comprising: an input terminal (V IN) and an output terminal (Out); a first current source having a gate connected to said input terminal (V IN); and a second current source, in parallel with said first current source, and sized differently to have a higher transconductance and a wider dynamic range than the first current source, and wherein the current sources are configured so that at a low input voltage only the first current source is on, and wherein: the transconductance circuit comprises a voltage drop circuit for providing a lower bias voltage for the second current source than for the first current source, the voltage drop circuit comprises a source follower and a current source for the source follower, in which the input terminal is linked with the gate of the source follower and the first current source, and the source follower and the current sources (4, 5) are configured so that a gate-source voltage drop across the source follower ensures that the second current source is off until a point during which the input voltage increases at which the second current source is switched on. an input terminal (V IN) and an output terminal (Out); a first current source having a gate connected to said input terminal (V IN); and a second current source, in parallel with said first current source, and sized differently to have a higher transconductance and a wider dynamic range than the first current source, and wherein the current sources are configured so that at a low input voltage only the first current source is on, and wherein: the transconductance circuit comprises a voltage drop circuit for providing a lower bias voltage for the second current source than for the first current source, the voltage drop circuit comprises a source follower and a current source for the source follower, in which the input terminal is linked with the gate of the source follower and the first current source, and the source follower and the current sources (4, 5) are configured so that a gate-source voltage drop across the source follower ensures that the second current source is off until a point during which the input voltage increases at which the second current source is switched on. the transconductance circuit comprises a voltage drop circuit for providing a lower bias voltage for the second current source than for the first current source, the voltage drop circuit comprises a source follower and a current source for the source follower, in which the input terminal is linked with the gate of the source follower and the first current source, and the source follower and the current sources (4, 5) are configured so that a gate-source voltage drop across the source follower ensures that the second current source is off until a point during which the input voltage increases at which the second current source is switched on.
An inhaler comprising capsule which contains medicament in dry powder form comprising; • a mouthpiece cover covering the mouthpiece, • a bottom casing wherein a mechanism of the device is situated, the mechanism comprising needles (9a,9b) for piercing the capsule and holes (15a,15b) through which the needles pass and enter a capsule chamber in order to pierce the capsule, wherein the device is structured such that upon inhalation, the needles at least in part remain in the respective needle holes; • a movable mouthpiece communicating with the bottom casing of the device, • a middle casing positioned between the bottom casing and the mouthpiece; and - the capsule chamber wherein the capsule is placed; characterized in that the ratio of the diameter of the needles (9a, 9b) piercing the capsule containing dry powder medicament to the diameter of the needle holes (15a, 15b) through which said needles pass and enter the capsule chamber in order to pierce the capsule is in the range of 0.1 to 1.0; and the device is structured such that part of the air flow entering the device upon inhalation enters the capsule chamber through a gap between the needles and their respective needle holes. • a mouthpiece cover covering the mouthpiece, • a bottom casing wherein a mechanism of the device is situated, the mechanism comprising needles (9a,9b) for piercing the capsule and holes (15a,15b) through which the needles pass and enter a capsule chamber in order to pierce the capsule, wherein the device is structured such that upon inhalation, the needles at least in part remain in the respective needle holes; • a movable mouthpiece communicating with the bottom casing of the device, • a middle casing positioned between the bottom casing and the mouthpiece; and - the capsule chamber wherein the capsule is placed; characterized in that the ratio of the diameter of the needles (9a, 9b) piercing the capsule containing dry powder medicament to the diameter of the needle holes (15a, 15b) through which said needles pass and enter the capsule chamber in order to pierce the capsule is in the range of 0.1 to 1.0; and the device is structured such that part of the air flow entering the device upon inhalation enters the capsule chamber through a gap between the needles and their respective needle holes. - the capsule chamber wherein the capsule is placed; characterized in that the ratio of the diameter of the needles (9a, 9b) piercing the capsule containing dry powder medicament to the diameter of the needle holes (15a, 15b) through which said needles pass and enter the capsule chamber in order to pierce the capsule is in the range of 0.1 to 1.0; and the device is structured such that part of the air flow entering the device upon inhalation enters the capsule chamber through a gap between the needles and their respective needle holes.
A motor vehicle - with a control device and - with a hands-free device, - wherein the hands-free device has a radio interface to exchange data with a mobile telephone, - wherein the control device is booted once the motor vehicle has been activated, - wherein a message is transmitted from the control device to the hands-free device triggered by the successful completion of booting of the control device, and - wherein a radio connection from the hands-free device to a mobile telephone is established triggered by the reception of the message by the hands-free device. - with a control device and - with a hands-free device, - wherein the hands-free device has a radio interface to exchange data with a mobile telephone, - wherein the control device is booted once the motor vehicle has been activated, - wherein a message is transmitted from the control device to the hands-free device triggered by the successful completion of booting of the control device, and - wherein a radio connection from the hands-free device to a mobile telephone is established triggered by the reception of the message by the hands-free device.
A device for detecting points and/or regions of rotational electrophysiological activity in or on a heart, said device comprising: - an input for receiving spatiotemporal electrophysiological data corresponding to a plurality of spatial locations in or on the heart; - a time feature extractor for providing, based on said received spatiotemporal electrophysiological data, for each of said plurality of spatial locations, a plurality of time values indicative of a time of occurrence of a predetermined feature of a plurality of electric potential waveforms at said spatial location; - a mapping unit for providing pairs of adjacent spatial locations of said plurality of spatial locations; - a directed graph generator for generating a directed graph comprising directed edges, each directed edge connecting a pair of said pairs of adjacent spatial locations in a sense of direction that is representative of a direction of propagation in time of at least one electric potential waveform of the plurality of electric potential waveforms between said pair of spatial locations, and wherein a distance associated with each pair of said pairs of adjacent spatial locations and at least one time value of said plurality of time values for each spatial location of said pair are taken into account to generate said directed graph; - a topological feature analyzer for determining cycles in said directed graph; and - an output for outputting detected points and/or detected regions in or on said heart as representative of said cycles detected by said topological feature analyzer. - an input for receiving spatiotemporal electrophysiological data corresponding to a plurality of spatial locations in or on the heart; - a time feature extractor for providing, based on said received spatiotemporal electrophysiological data, for each of said plurality of spatial locations, a plurality of time values indicative of a time of occurrence of a predetermined feature of a plurality of electric potential waveforms at said spatial location; - a mapping unit for providing pairs of adjacent spatial locations of said plurality of spatial locations; - a directed graph generator for generating a directed graph comprising directed edges, each directed edge connecting a pair of said pairs of adjacent spatial locations in a sense of direction that is representative of a direction of propagation in time of at least one electric potential waveform of the plurality of electric potential waveforms between said pair of spatial locations, and wherein a distance associated with each pair of said pairs of adjacent spatial locations and at least one time value of said plurality of time values for each spatial location of said pair are taken into account to generate said directed graph; - a topological feature analyzer for determining cycles in said directed graph; and - an output for outputting detected points and/or detected regions in or on said heart as representative of said cycles detected by said topological feature analyzer.
A blood component separation device that separates a predetermined blood component from blood drawn from a blood donor while supplying to the blood an anticoagulant for preventing coagulation of blood, comprising a centrifugal separator and a first tube (Tl) coupled to a blood drawing needle, wherein the device is configured so that an anticoagulant ratio, or a ratio of an amount of the anticoagulant supplied in relation to the blood, is set according to a hematocrit value of the blood donor so that a concentration of the anticoagulant in the separated predetermined blood component becomes a predetermined value, characterized in that the device is configured so that a priming step of supplying the anticoagulant, before blood drawing to said centrifugal separator, is performed for preventing coagulation of blood via a second tube coupled to the blood drawing needle and including a pump.