mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for facilitating treatment via a vascular wall defining a vascular lumen containing an occlusion therein, the apparatus comprising: an intravascular device having a distal portion, the distal portion including a first aperture and a second aperture, the first aperture being located proximal the second aperture, the distal portion further including an orienting element comprising a first inflatable member and a second inflatable member being configured to orient the intravascular device after being inflated, wherein the first inflatable member extends from a shaft of the intravascular device in a first direction, the second inflatable member extends from the shaft in a second direction substantially opposite the first direction, wherein the first aperture and the second aperture are both disposed between the first inflatable member and the second inflatable member, and are both adapted to direct the distal end of a re-entry device there through, wherein the first aperture and the second aperture extend from the shaft of the intravascular device in substantially opposite directions such that the directions of the first aperture and the second aperture are generally perpendicular to the first direction of the first inflatable member and the second direction of the second inflatable member, wherein, in a deflated state, the first inflatable member and the second inflatable member have a folded shape. an intravascular device having a distal portion, the distal portion including a first aperture and a second aperture, the first aperture being located proximal the second aperture, the distal portion further including an orienting element comprising a first inflatable member and a second inflatable member being configured to orient the intravascular device after being inflated, wherein the first inflatable member extends from a shaft of the intravascular device in a first direction, the second inflatable member extends from the shaft in a second direction substantially opposite the first direction, wherein the first aperture and the second aperture are both disposed between the first inflatable member and the second inflatable member, and are both adapted to direct the distal end of a re-entry device there through, wherein the first aperture and the second aperture extend from the shaft of the intravascular device in substantially opposite directions such that the directions of the first aperture and the second aperture are generally perpendicular to the first direction of the first inflatable member and the second direction of the second inflatable member, wherein, in a deflated state, the first inflatable member and the second inflatable member have a folded shape.
A jaw pair for punching out holes or recesses, preferably in sheet metal parts, which jaw pair is connectable to a device to be operated preferably hydraulically and is designed, for example, as a pivoting jaw pair, wherein a punch is formed on one jaw and a punching opening is formed on the other jaw, whereby a stripper part which is situated outside of an outer contour of the punch in the punching direction is formed in the jaw having the punch and is movable against the action of a compression spring in relation to the punch and whereby the pivoting jaws are formed differently, the jaw having the punch having an angled shape in a side view.
An applicator for applying a liquid sealant to a fastener, comprising: a coupling that is configured to reversibly connect to a source of liquid sealant;a fastener socket connected to the coupling so that the fastener socket and the coupling combine to form a sidewall that extends from the coupling to the fastener socket, the sidewall defining a sealant flow path between the source of liquid sealant and the fastener socket, the fastener socket having a distal end configured to be placed over a head of a preselected fastener and to at least substantially enclose the fastener head; a flow restrictor disposed in the sealant flow path, the flow restrictor restricting the sealant flow path to a plurality of apertures disposed in an annular pattern in the flow restrictor; a porous matrix that substantially fills at least a portion of the sealant flow path downstream of the flow restrictor; a matrix retainer configured to retain the porous matrix within the sealant flow path; and characterized in that the coupling includes a threaded portion, and the fastener socket includes a threaded portion; the coupling and fastener socket being secured to each other by a threaded connection such that the flow restrictor and matrix retainer are secured between the coupling and fastener socket by the threaded connection; and wherein the applicator is configured to provide a uniform application of the sealant from the source of the liquid sealant to the head of the fastener enclosed by the fastener socket. a coupling that is configured to reversibly connect to a source of liquid sealant;a fastener socket connected to the coupling so that the fastener socket and the coupling combine to form a sidewall that extends from the coupling to the fastener socket, the sidewall defining a sealant flow path between the source of liquid sealant and the fastener socket, the fastener socket having a distal end configured to be placed over a head of a preselected fastener and to at least substantially enclose the fastener head; a flow restrictor disposed in the sealant flow path, the flow restrictor restricting the sealant flow path to a plurality of apertures disposed in an annular pattern in the flow restrictor; a porous matrix that substantially fills at least a portion of the sealant flow path downstream of the flow restrictor; a matrix retainer configured to retain the porous matrix within the sealant flow path; and the coupling includes a threaded portion, and the fastener socket includes a threaded portion; the coupling and fastener socket being secured to each other by a threaded connection such that the flow restrictor and matrix retainer are secured between the coupling and fastener socket by the threaded connection; and wherein the applicator is configured to provide a uniform application of the sealant from the source of the liquid sealant to the head of the fastener enclosed by the fastener socket.
An electronic device comprising: an audio jack including a plurality of terminals including a first detection terminal and a second detection terminal; at least one processor functionally connected to the audio jack; a voltage control circuit electrically connected to the first detection terminal; a jack recognition circuit electrically connected to the first and second detection terminals; and a memory, characterized in that the memory stores instructions that, when executed by the at least one processor, control the electronic device to: detect an occurrence of an insertion interrupt in the jack recognition circuit through the first detection terminal, based on an object inserted in the audio jack being determined to be an abnormal substance using an impedance value measured through the second detection terminal, provide the voltage control circuit with information indicating that the object is the abnormal substance, and control the voltage control circuit to stop applying the voltage to the first detection terminal. an audio jack including a plurality of terminals including a first detection terminal and a second detection terminal; at least one processor functionally connected to the audio jack; a voltage control circuit electrically connected to the first detection terminal; a jack recognition circuit electrically connected to the first and second detection terminals; and a memory, characterized in that the memory stores instructions that, when executed by the at least one processor, control the electronic device to: detect an occurrence of an insertion interrupt in the jack recognition circuit through the first detection terminal, based on an object inserted in the audio jack being determined to be an abnormal substance using an impedance value measured through the second detection terminal, provide the voltage control circuit with information indicating that the object is the abnormal substance, and control the voltage control circuit to stop applying the voltage to the first detection terminal. detect an occurrence of an insertion interrupt in the jack recognition circuit through the first detection terminal, based on an object inserted in the audio jack being determined to be an abnormal substance using an impedance value measured through the second detection terminal, provide the voltage control circuit with information indicating that the object is the abnormal substance, and control the voltage control circuit to stop applying the voltage to the first detection terminal.
A high strength steel sheet comprising: a composition containing, on a mass% basis, C: 0.05% to 0.30%, Si: 0.5% to 2.5%, Mn: 0.5% to 3.5%, P: 0.003% to 0.100%, S: 0.02% or less, Al: 0.010% to 1.5%, and N: 0.01% or less, optionally one or more elements selected from Cr: 0.005% to 2.00%, Mo: 0.005% to 2.00%, V: 0.005% to 2.00%, Ni: 0.005% to 2.00%, Cu: 0.005% to 2.00%, Ti: 0.01% to 0.20%, Nb: 0.01% to 0.20%, B: 0.0002% to 0.01%, Sb: 0.001% to 0.05% and Sn: 0.001% to 0.05%, the balance being Fe and unavoidable impurities; and a steel microstructure including a ferrite phase with an area fraction of 10% to 70%, a hard second phase with an area fraction of 30% to 90%, and a carbide that is present at an interface between the ferrite phase and the hard second phase and that has an average equivalent-circle diameter of 200 nm or less, wherein the hard second phase includes: bainite and tempered martensite, and the bainite and the tempered martensite have an area fraction of 10% to 90% in total, as-quenched martensite, and the as-quenched martensite has an area fraction of 10% or less, retained austenite, and the retained austenite has an area fraction of 10% or less and pearlite, and the pearlite has an area fraction of 3% or less. a composition containing, on a mass% basis, C: 0.05% to 0.30%, Si: 0.5% to 2.5%, Mn: 0.5% to 3.5%, P: 0.003% to 0.100%, S: 0.02% or less, Al: 0.010% to 1.5%, and N: 0.01% or less, optionally one or more elements selected from Cr: 0.005% to 2.00%, Mo: 0.005% to 2.00%, V: 0.005% to 2.00%, Ni: 0.005% to 2.00%, Cu: 0.005% to 2.00%, Ti: 0.01% to 0.20%, Nb: 0.01% to 0.20%, B: 0.0002% to 0.01%, Sb: 0.001% to 0.05% and Sn: 0.001% to 0.05%, the balance being Fe and unavoidable impurities; and a steel microstructure including a ferrite phase with an area fraction of 10% to 70%, a hard second phase with an area fraction of 30% to 90%, and a carbide that is present at an interface between the ferrite phase and the hard second phase and that has an average equivalent-circle diameter of 200 nm or less, wherein the hard second phase includes: bainite and tempered martensite, and the bainite and the tempered martensite have an area fraction of 10% to 90% in total, as-quenched martensite, and the as-quenched martensite has an area fraction of 10% or less, retained austenite, and the retained austenite has an area fraction of 10% or less and pearlite, and the pearlite has an area fraction of 3% or less.
An actuation apparatus for a locking mechanism of a door or of a window, in particular of a terrace door, comprising an shaft element which is coupled or couplable to the locking mechanism and which, in a manual actuation operation, is manually rotatable about a main axis at least between an open position and a closed position; an electromechanical drive device; and an entrainment element which can be driven by means of the drive device to carry out a rotational movement, wherein the entrainment element is selectively couplable to the shaft element by means of the drive device such that the shaft element is electromechanically rotatable between the open position and the closed position by means of the drive device via the entrainment element; and wherein, for the manual actuation operation of the actuation apparatus, the entrainment element is rotatable by means of the drive device into a position of rest in which the entrainment element is decoupled from the shaft element, characterized in that the actuation apparatus furthermore has a fixing element and a blocking device, with the shaft element being latchable and/or blockable relative to the fixing element at least in the closed position, with the blocking device being selectively displaceable into a blocking state in which the fixing element is fixed in a stationary manner or into a release state in which the fixing element is released for a rotational movement together with the manually rotated shaft element, with the blocking device being displaceable into the blocking state in that the drive device rotates the entrainment element into the position of rest, and with the blocking device being displaceable from the blocking state into the release state in that the drive device rotates the entrainment element into a release position which differs from the position of rest.
Method for in-ovo sexing of fertilised and incubated avian eggs, in which the progress over time of the incubation of the respective avian egg until the formation of at least one blood vessel is monitored and subsequently the at least one blood vessel is analysed with a view to sexing, wherein the respective avian egg is measured non-invasively from the outside by means of NMR spectroscopy after the formation of at least one blood vessel, characterised in that the ratio of the intensities of the signals of the nucleobases from the DNA of the at least one blood vessel to the signals of the aromatic amino acids histidine, phenylalanine and tyrosine is determined, wherein this intensity ratio has an evaluable different value for blood from male and female embryos, wherein subsequently the sex of the respective avian egg is determined by an evaluation unit from the determined intensity ratio.
A temperature sensor calibration circuit, comprising: a first current generator configured to generate a proportional to absolute temperature (PTAT) current (I P); and a second current generator configured to generate an inverse PTAT (IPTAT) current (I N), the PTAT current and IPTAT current being combined to form a reference current (I REF) having a sensitivity relative to temperature, which is higher than that of the PTAT current; characterized by a plurality of current mirrors (365/366, 367/368, 369/370) to adjust the sensitivity and gain of the reference current (I REF); and a variable resistor to set an output calibration voltage (V OUT) based on the generated current (I OUT). a first current generator configured to generate a proportional to absolute temperature (PTAT) current (I P); and a second current generator configured to generate an inverse PTAT (IPTAT) current (I N), the PTAT current and IPTAT current being combined to form a reference current (I REF) having a sensitivity relative to temperature, which is higher than that of the PTAT current; characterized by a plurality of current mirrors (365/366, 367/368, 369/370) to adjust the sensitivity and gain of the reference current (I REF); and a variable resistor to set an output calibration voltage (V OUT) based on the generated current (I OUT).
A pneumatic controller, comprising: a housing; a piston disposed in the housing and movable therein; a diaphragm disposed at the piston to isolate a first chamber of the pneumatic controller from a second chamber of the pneumatic controller, the diaphragm including: a first diaphragm surface; a diaphragm opening extending through the diaphragm; two fabric reinforcing layers to strengthen the diaphragm; and a second diaphragm surface opposite the first diaphragm surface, the two fabric reinforcing layers disposed between the first diaphragm surface and the second diaphragm surface; characterized in that the two fabric reinforcing layers are of unequal size. a housing; a piston disposed in the housing and movable therein; a diaphragm disposed at the piston to isolate a first chamber of the pneumatic controller from a second chamber of the pneumatic controller, the diaphragm including: a first diaphragm surface; a diaphragm opening extending through the diaphragm; two fabric reinforcing layers to strengthen the diaphragm; and a second diaphragm surface opposite the first diaphragm surface, the two fabric reinforcing layers disposed between the first diaphragm surface and the second diaphragm surface; a first diaphragm surface; a diaphragm opening extending through the diaphragm; two fabric reinforcing layers to strengthen the diaphragm; and
An immunogenic composition for use in the treatment or prevention of infection from a canine respiratory pathogen in a dog, the composition comprising Bordetella bronchiseptica bacterin and an added isolated Bordetella bronchiseptica p68 protein, wherein said p68 is present at between 5 μg ±10% and 20 μg ±10%.
Polyester comprising: a) a dicarboxylic component comprising with respect to the total dicarboxylic component: a1) 85-65% in moles of units deriving from 2,5-furandicarboxylic acid or an ester thereof; a2) 15-35% in moles of units deriving from at least one saturated dicarboxylic acid selected from the group comprising adipic acid, azelaic acid, sebacic acid, brassylic acid or an ester or derivative thereof; a3) 0 - 15% in moles of units deriving from at least one aliphatic saturated dicarboxylic acid which is not the saturated dicarboxylic acid in component a2; a4) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic dicarboxylic acid or an ester thereof; b) a diol component comprising with respect to the total diol component: b1) 95 - 100% in moles of units deriving from 1,2-ethanediol; b2) 0 - 5% in moles of units deriving from at least one saturated aliphatic diol which is not 1,2-ethanediol; b3) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic diol. a) a dicarboxylic component comprising with respect to the total dicarboxylic component: a1) 85-65% in moles of units deriving from 2,5-furandicarboxylic acid or an ester thereof; a2) 15-35% in moles of units deriving from at least one saturated dicarboxylic acid selected from the group comprising adipic acid, azelaic acid, sebacic acid, brassylic acid or an ester or derivative thereof; a3) 0 - 15% in moles of units deriving from at least one aliphatic saturated dicarboxylic acid which is not the saturated dicarboxylic acid in component a2; a4) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic dicarboxylic acid or an ester thereof; a1) 85-65% in moles of units deriving from 2,5-furandicarboxylic acid or an ester thereof; a2) 15-35% in moles of units deriving from at least one saturated dicarboxylic acid selected from the group comprising adipic acid, azelaic acid, sebacic acid, brassylic acid or an ester or derivative thereof; a3) 0 - 15% in moles of units deriving from at least one aliphatic saturated dicarboxylic acid which is not the saturated dicarboxylic acid in component a2; a4) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic dicarboxylic acid or an ester thereof; b) a diol component comprising with respect to the total diol component: b1) 95 - 100% in moles of units deriving from 1,2-ethanediol; b2) 0 - 5% in moles of units deriving from at least one saturated aliphatic diol which is not 1,2-ethanediol; b3) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic diol. b1) 95 - 100% in moles of units deriving from 1,2-ethanediol; b2) 0 - 5% in moles of units deriving from at least one saturated aliphatic diol which is not 1,2-ethanediol; b3) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic diol.
An engine generator comprising: an engine; a generator configured to be driven by the engine; a rectifier configured to rectify an output from the generator; an inverter configured to convert a DC power from the rectifier into an AC power; and a power storage device provided in parallel with the generator in a path from the rectifier to the inverter, the power storage device including a charging conductor and a discharging conductor, wherein the engine generator is configured to control conduction of the charging conductor and the discharging conductor so as to control charge/discharge of the power storage device, wherein a DC voltage in the path from the rectifier to the inverter is detected in controlling the charge/discharge, wherein a duty ratio in switching control of the charging conductor of the power storage device is set higher than a duty ratio in the switching control of the discharging conductor of the power storage device when the DC voltage is higher than a value obtained by adding a dead zone range to a target voltage of the DC voltage, wherein the duty ratio in the switching control of the discharging conductor of the power storage device is set higher than the duty ratio in the switching control of the charging conductor of the power storage device when the DC voltage is lower than a value obtained by subtracting the dead zone range from the target voltage, and wherein a load power is detected so as to change the dead zone to a value relative to the load power with a delay corresponding to a time constant not less than a predetermined value. an engine; a generator configured to be driven by the engine; a rectifier configured to rectify an output from the generator; an inverter configured to convert a DC power from the rectifier into an AC power; and a power storage device provided in parallel with the generator in a path from the rectifier to the inverter, the power storage device including a charging conductor and a discharging conductor, wherein the engine generator is configured to control conduction of the charging conductor and the discharging conductor so as to control charge/discharge of the power storage device, wherein a DC voltage in the path from the rectifier to the inverter is detected in controlling the charge/discharge, wherein a duty ratio in switching control of the charging conductor of the power storage device is set higher than a duty ratio in the switching control of the discharging conductor of the power storage device when the DC voltage is higher than a value obtained by adding a dead zone range to a target voltage of the DC voltage, wherein the duty ratio in the switching control of the discharging conductor of the power storage device is set higher than the duty ratio in the switching control of the charging conductor of the power storage device when the DC voltage is lower than a value obtained by subtracting the dead zone range from the target voltage, and wherein a load power is detected so as to change the dead zone to a value relative to the load power with a delay corresponding to a time constant not less than a predetermined value.