mhurhangee/ep-ind-claims huggingface dataset:
A surgical tool, comprising: an end effector, comprising: a first jaw member; a second jaw member; and a closure mechanism configured to move the first jaw member relative to the second jaw member between an open position and a closed position; a shaft assembly proximal to the surgical end effector, wherein the surgical end effector is configured to rotate relative to the shaft assembly; and a rotary drive shaft configured to transmit rotary motions, the rotary drive shaft selectively movable axially between a first position and a second position relative to the shaft assembly, wherein the rotary drive shaft is configured to apply the rotary motions to the closure mechanism when in the first axial position, and wherein the rotary drive shaft is configured to apply the rotary motions to the end effector when in the second axial position. an end effector, comprising: a first jaw member; a second jaw member; and a closure mechanism configured to move the first jaw member relative to the second jaw member between an open position and a closed position; a first jaw member; a second jaw member; and a closure mechanism configured to move the first jaw member relative to the second jaw member between an open position and a closed position; a shaft assembly proximal to the surgical end effector, wherein the surgical end effector is configured to rotate relative to the shaft assembly; and a rotary drive shaft configured to transmit rotary motions, the rotary drive shaft selectively movable axially between a first position and a second position relative to the shaft assembly, wherein the rotary drive shaft is configured to apply the rotary motions to the closure mechanism when in the first axial position, and wherein the rotary drive shaft is configured to apply the rotary motions to the end effector when in the second axial position.
A curved bullet-proof composite comprising: a. one glass strike-face layer of Alkali Aluminosilicate glass, Soda-Lime glass, or Borosilicate glass having been subjected to an ion exchange process, having a thickness less or equal to 3 mm; b. one or more glass or glass-ceramic intermediate layers; c. one internal plastic layer; and d. an adhesive material between the strike-face layer, the intermediate layers and internal plastic layer; wherein the glass strike-face layer has a softening temperature different to that of glass or glass-ceramic used in the intermediate layers; wherein the strike-face layer is mechanically curved to adopting the curvature given to the one or more glass or glass-ceramic intermediate layers. a. one glass strike-face layer of Alkali Aluminosilicate glass, Soda-Lime glass, or Borosilicate glass having been subjected to an ion exchange process, having a thickness less or equal to 3 mm; b. one or more glass or glass-ceramic intermediate layers; c. one internal plastic layer; and d. an adhesive material between the strike-face layer, the intermediate layers and internal plastic layer;
A paste composition for front electrode of a solar cell, the paste composition comprising: conductive powder; an organic vehicle; a glass frit; and an additive, wherein the conductive powder comprises silver (Ag) powder, wherein the additive comprises at least one material selected from group consisting of SnFe 2 O 4, NiFe 2 O 4, ZnFe 2 O 4, CuFe 2 O 4, and VFe 2 O 4 wherein the paste composition comprises 0.1% by weight to 10% by weight of the additive.
A portable fire extinguisher comprising: a chamber filled with fire suppressant material; a replaceable inverted gas cartridge; a puncturing mechanism (60, 62) that allows for puncturing said inverted gas cartridge, said puncturing mechanism comprising a puncture pin that is operably connected to a trigger mechanism; a passage for expelling said fire suppressant material from said chamber; characterized in that said trigger mechanism is configured to move the puncture pin to rupture an end of said replaceable inverted gas cartridge when activated; and in that the portable extinguisher comprises a safety knob movable between a first orientation in which it restricts the trigger mechanism to lock said puncture mechanism (60, 62) and a second orientation in which it does not restrict movement of the trigger mechanism and the puncture mechanism (60, 62) is unlocked. a chamber filled with fire suppressant material; a replaceable inverted gas cartridge; a puncturing mechanism (60, 62) that allows for puncturing said inverted gas cartridge, said puncturing mechanism comprising a puncture pin that is operably connected to a trigger mechanism; a passage for expelling said fire suppressant material from said chamber; characterized in that said trigger mechanism is configured to move the puncture pin to rupture an end of said replaceable inverted gas cartridge when activated; and in that the portable extinguisher comprises a safety knob movable between a first orientation in which it restricts the trigger mechanism to lock said puncture mechanism (60, 62) and a second orientation in which it does not restrict movement of the trigger mechanism and the puncture mechanism (60, 62) is unlocked.
A track and hold circuit, comprising: a main transistor between an input and an output of the circuit, wherein the main transistor is part of an integrated circuit supplied by a first set of voltage rails which form a digital core supply; and a storage capacitor for storing the output voltage during a hold phase during which the main transistor is turned off, wherein the circuit comprises: a buffer circuit for generating a gate voltage for turning on the main transistor during a track phase, wherein the buffer circuit is adapted to derive a gate voltage based on the input or output voltage of the circuit and a voltage step with respect to the input voltage or the output voltage, characterized in that the buffer circuit is supplied by a second set of voltage rails which form an analogue supply and with a greater voltage swing than the first set of voltage rails. a main transistor between an input and an output of the circuit, wherein the main transistor is part of an integrated circuit supplied by a first set of voltage rails which form a digital core supply; and a storage capacitor for storing the output voltage during a hold phase during which the main transistor is turned off, wherein the circuit comprises: a buffer circuit for generating a gate voltage for turning on the main transistor during a track phase, wherein the buffer circuit is adapted to derive a gate voltage based on the input or output voltage of the circuit and a voltage step with respect to the input voltage or the output voltage, characterized in that the buffer circuit is supplied by a second set of voltage rails which form an analogue supply and with a greater voltage swing than the first set of voltage rails.
Method to form elementary nanoscale units inside an all-silicon light-to-electricity converter, characterized in the following succession of steps in the effect of forming and shaping them, whereby an ion irradiation is realized in several stages: a) an initial n-type doping profile by the so-called low-temperature thermal diffusion at T < 1000°C or by doping implantation in the homogeneously, lightly or moderately p-doped wafer b) pre conditioning of the wafer surface after the diffusion process c) providing a 50 - 200 keV ion beam irradiation leading to a buried amorphization by a self Si implantation or by P implantation, d) constitution of c-Si/a-Si heterointerfaces by the thermal annealing cycle at 500°C, e) activation of elementary nanoscale units f) constitution of metamaterial nanolayers by the thermal annealing cycle at 350 - 450°C, thereby placing nanoscale units within an emitter to the front face of a light to electricity converter, g) device final processing steps, namely coating, electronic passivation or metallizations. a) an initial n-type doping profile by the so-called low-temperature thermal diffusion at T < 1000°C or by doping implantation in the homogeneously, lightly or moderately p-doped wafer b) pre conditioning of the wafer surface after the diffusion process c) providing a 50 - 200 keV ion beam irradiation leading to a buried amorphization by a self Si implantation or by P implantation, d) constitution of c-Si/a-Si heterointerfaces by the thermal annealing cycle at 500°C, e) activation of elementary nanoscale units f) constitution of metamaterial nanolayers by the thermal annealing cycle at 350 - 450°C, thereby placing nanoscale units within an emitter to the front face of a light to electricity converter, g) device final processing steps, namely coating, electronic passivation or metallizations.
A heat exchanger suitable for recovering heat from bed material of a fluidized bed boiler, the heat exchanger comprising - first heat exchanger tubes, - second heat exchanger tubes, - a first feeding chamber configured to supply bed material to the first heat exchanger tubes, and - a second feeding chamber configured to supply bed material to the second heat exchanger tubes, wherein - the first heat exchanger tubes are arranged only on a first side of a plane that intersects with the first feeding chamber and that is in use configured to be vertical and the second heat exchanger tubes are arranged only on a second side of the plane, wherein - the first feeding chamber is configured to supply bed material to the second feeding chamber. - first heat exchanger tubes, - second heat exchanger tubes, - a first feeding chamber configured to supply bed material to the first heat exchanger tubes, and - a second feeding chamber configured to supply bed material to the second heat exchanger tubes, wherein - the first heat exchanger tubes are arranged only on a first side of a plane that intersects with the first feeding chamber and that is in use configured to be vertical and the second heat exchanger tubes are arranged only on a second side of the plane, wherein - the first feeding chamber is configured to supply bed material to the second feeding chamber.
A method of forming a photolithographic pattern, comprising: (a) providing a substrate comprising over a surface thereof one or more layers to be patterned; (b) applying a layer of a photoresist composition over the one or more layers to be patterned, the photoresist composition comprising a resin comprising an acid cleavable group and an acid generator; (c) patternwise exposing the photoresist composition layer to actinic radiation; and (d) applying a developer to the photoresist composition layer, wherein unexposed portions of the photoresist layer are removed by the developer, leaving a photoresist pattern over the one or more layers to be patterned, wherein the developer comprises 2-heptanone and/or 5-methyl-2-hexanone. (a) providing a substrate comprising over a surface thereof one or more layers to be patterned; (b) applying a layer of a photoresist composition over the one or more layers to be patterned, the photoresist composition comprising a resin comprising an acid cleavable group and an acid generator; (c) patternwise exposing the photoresist composition layer to actinic radiation; and (d) applying a developer to the photoresist composition layer, wherein unexposed portions of the photoresist layer are removed by the developer, leaving a photoresist pattern over the one or more layers to be patterned, wherein the developer comprises 2-heptanone and/or 5-methyl-2-hexanone.
An apparatus for a power circuit providing an alternating current to a load, said apparatus comprising: a high frequency current sensor structured to cooperate with said power circuit to provide a high frequency current signal; a voltage zero crossing detector structured to cooperate with said power circuit to provide a voltage zero crossing signal; a high pass filter structured to provide a filtered current signal from the high frequency current signal; a threshold comparator structured to provide an output when the filtered current signal exceeds a predetermined value; and characterized by a processor structured to receive the voltage zero crossing signal and the output of the threshold comparator and output a trip signal in response to undesired series arcing by detecting an unsymmetrical high frequency signal for a predetermined number of cycles, wherein each of the predetermined number of cycles includes a positive half cycle and a negative half cycle, and wherein in said unsymmetrical high frequency signal the magnitude of said unsymmetrical high frequency signal in each positive half cycle is asymmetric with respect to the magnitude of said unsymmetrical high frequency signal in each negative half cycle, wherein the alternating current is in a range from about 2.4 A RMS to about 40 A RMS. a high frequency current sensor structured to cooperate with said power circuit to provide a high frequency current signal; a voltage zero crossing detector structured to cooperate with said power circuit to provide a voltage zero crossing signal; a high pass filter structured to provide a filtered current signal from the high frequency current signal; a threshold comparator structured to provide an output when the filtered current signal exceeds a predetermined value; and characterized by a processor structured to receive the voltage zero crossing signal and the output of the threshold comparator and output a trip signal in response to undesired series arcing by detecting an unsymmetrical high frequency signal for a predetermined number of cycles, wherein each of the predetermined number of cycles includes a positive half cycle and a negative half cycle, and wherein in said unsymmetrical high frequency signal the magnitude of said unsymmetrical high frequency signal in each positive half cycle is asymmetric with respect to the magnitude of said unsymmetrical high frequency signal in each negative half cycle, wherein the alternating current is in a range from about 2.4 A RMS to about 40 A RMS.
A blood analysis method which uses a blood test kit including a diluent solution for diluting components of a blood sample and at least one transparent container for storing the components of the blood sample and the diluent solution, wherein at least one constituent component included in the blood test kit is marked with a graduation for measuring a liquid volume of the components of the blood sample and the diluent solution, wherein the components of the blood sample are blood plasma components separated from the blood sample by a separation means, and wherein the sample has a size of 10 μL or more and 70 μL or less, the method comprising: a step of selecting a specimen containing the blood sample components of a predetermined amount or more which have been determined in advance by using the graduation, as an analysis target specimen so as to exclude a specimen containing the blood sample components of less than the predetermined amount from the analysis target specimen; and a step of analyzing the blood by using the specimen containing the blood sample components which have been selected from the above step, a step of analyzing a concentration of a target component in the components of the blood sample by using a first normal component homeostatically present in the blood, wherein the diluent solution does not contain the first normal component homeostatically present in the blood, and characterized by a step of verifying the analysis by using a second normal component homeostatically present in the blood that is different from the first normal component. a step of selecting a specimen containing the blood sample components of a predetermined amount or more which have been determined in advance by using the graduation, as an analysis target specimen so as to exclude a specimen containing the blood sample components of less than the predetermined amount from the analysis target specimen; and a step of analyzing the blood by using the specimen containing the blood sample components which have been selected from the above step, a step of analyzing a concentration of a target component in the components of the blood sample by using a first normal component homeostatically present in the blood, wherein the diluent solution does not contain the first normal component homeostatically present in the blood, and characterized by a step of verifying the analysis by using a second normal component homeostatically present in the blood that is different from the first normal component.
A universal safety electrosurgical return electrode comprising: a conductive element configured to conduct electrical current, the conductive element having opposing first and second major surfaces; a first pad positioned adjacent the first major surface of the conductive element, wherein the first pad has a thickness of about 0.003048 m ("0.120 inches") or less; a second pad positioned adjacent the second major surface of the conductive element, wherein the second pad has a thickness of about 0.003048 m ("0.120 inches or less), wherein the first and second pads cooperate with the conductive element to define first and second working surfaces on opposing sides of the universal electrosurgical return electrode wherein the thicknesses of the first and second pads enable the universal electrosurgical return electrode to self-limit current densities when used with any patient that weighs about 0.362874 Kg ("0.8 Ibs.") or more, wherein the universal safety electrosurgical return electrode is configured such that electrical current transferred from a patient to the conductive element is transmitted non-uniformly over the portion of the universal safety electrosurgical return electrode that is contacted by the patient. a conductive element configured to conduct electrical current, the conductive element having opposing first and second major surfaces; a first pad positioned adjacent the first major surface of the conductive element, wherein the first pad has a thickness of about 0.003048 m ("0.120 inches") or less; a second pad positioned adjacent the second major surface of the conductive element, wherein the second pad has a thickness of about 0.003048 m ("0.120 inches or less), wherein the first and second pads cooperate with the conductive element to define first and second working surfaces on opposing sides of the universal electrosurgical return electrode wherein the thicknesses of the first and second pads enable the universal electrosurgical return electrode to self-limit current densities when used with any patient that weighs about 0.362874 Kg ("0.8 Ibs.") or more, wherein the universal safety electrosurgical return electrode is configured such that electrical current transferred from a patient to the conductive element is transmitted non-uniformly over the portion of the universal safety electrosurgical return electrode that is contacted by the patient.
A leg garment (1, 1', 1", 1′′′, 1ʺʺ) comprising a flat-knitted basic knitted fabric part (3, 3', 3'', 3′′′, 3ʺʺ) that forms at least a foot part (2, 2', 2", 2′′′, 2ʺʺ), with at least one first functional zone (4, 4') that is knitted into the basic knitted fabric part (3, 3', 3", 3′′′, 3ʺʺ) and designed for accommodating a heel of a foot, wherein the flat-knitted basic knitted fabric part (3, 3', 3", 3′′′, 3ʺʺ) is sewn together by means of a longitudinal seam (5, 5', 5'', 5''', 5ʺʺ) so as to form a tubular knitted fabric, characterized in that the at least one first functional zone (4, 4') is knitted into the basic knitted fabric part (3, 3', 3'', 3′′′, 3ʺʺ) in such a way that, in the worn state of the leg garment ( 1, 1', 1", 1′′′, 1''''), the longitudinal seam (5, 5', 5", 5′′′, 5ʺʺ) connecting the basic knitted fabric part (3, 3', 3", 3′′′, 3ʺʺ) is arranged outside the sole of the foot at least in a heel region.
A method of maintaining mixing efficiency between reactants injected through an injector mixer for a gasification reactor system, comprising an injector body that extends between a first face and a second face, the injector body including a first passage extending between the first face and the second face and having a first central axis, and at least one second, impinging passage extending between the first face and the second face and having an associated second central axis that has an angle (θ) with the first central axis, the method comprising establishing gasification parameter variables ṁ stox, ṁ fuel, p fuel, A fuel and A stox to satisfy mixing efficiency Equation: 2 ≤ 2 sin θ m ̇ stox m ̇ fuel 2 p fuel p stox A fuel A stox 3.1 ≤ 7 where, ṁ stox is the mass flow rate of oxidant reactant through the at least one second passage; ṁ fuel is the mass flow rate of fuel material reactant through the first passage; p stox is the density of the oxidant reactant; p fuel is the density of the fuel material reactant; A fuel is the cross-sectional area of the first passage; and A stox is the total cross-sectional area of the at least one second passage, and wherein the angle (θ) is not equal to 30°. where, ṁ stox is the mass flow rate of oxidant reactant through the at least one second passage; ṁ fuel is the mass flow rate of fuel material reactant through the first passage; p stox is the density of the oxidant reactant; p fuel is the density of the fuel material reactant; A fuel is the cross-sectional area of the first passage; and A stox is the total cross-sectional area of the at least one second passage, and wherein the angle (θ) is not equal to 30°.
A system for treating extensive obliterative vascular diseases, in which the severity of the disease differs in different sections of the vessel, comprising: - a biocorrodible stent, or a plurality of biocorrodible stents-spaced apart from one another-which can be arranged in vascular sections of the diseased vessel that have been dilated by way of transluminal angioplasty, and - an implant adapted for release of an active ingredient, which can be anchored in the vascular wall and comprises an active ingredient depot for releasing the active ingredient, which is connected to a microcannula that, during placement of the implant, penetrates the vascular wall and allows the active ingredient to be released there by way of diffusion. - a biocorrodible stent, or a plurality of biocorrodible stents-spaced apart from one another-which can be arranged in vascular sections of the diseased vessel that have been dilated by way of transluminal angioplasty, and - an implant adapted for release of an active ingredient, which can be anchored in the vascular wall and comprises an active ingredient depot for releasing the active ingredient, which is connected to a microcannula that, during placement of the implant, penetrates the vascular wall and allows the active ingredient to be released there by way of diffusion.
A two-component curable solventless adhesive comprising a base resin and a curing agent, wherein the base resin contains a polyol having (a) a secondary or tertiary terminal hydroxyl group accounting for 30 mol% or more of the entire terminal hydroxyl groups of the polyol and (b) an acid group; and the curing agent contains an isocyanate group-terminated urethane prepolymer obtained by reacting a raw polyisocyanate containing at least an aralkyl polyisocyanate with a polyol, the curing agent having a content of a low molecular weight polyisocyanate having a molecular weight of 190 or less of 3% by weight or less; and wherein a value calculated from the following formula is 10 or more and 80 or less; Acid equivalent of base resin x Amount of curing agent parts by weight Isocyanate equivalent of curing agent x Amount of base resin parts by weight