mhurhangee/patent-ind-claim-en huggingface dataset:
A flame resistant fabric comprising spun yarns comprising a fiber blend comprising a plurality of modacrylic fibers, a plurality of cellulosic fibers, and a plurality of aliphatic polyamide fibers, wherein the fabric has a two second or less afterflame measured pursuant to ASTM D6413, wherein the fiber blend comprises 40-65% modacrylic fibers, 10-40% cellulosic fibers and 15-40% aliphatic polyamide fibers, wherein the fiber blend is devoid of aramid fibers and wherein the fabric is capable of being printed or dyed in compliance with at least one infrared requirement set forth in at least one of GL-PD-07-12 (Rev. 8) and MIL-PRF-EFRCE (September 2015).
Sanitary installation comprising at least one sanitary element (S) that is arrangeable in a receiving space and is accessible via an access opening in a wall of the receiving space , and a cover with which, in a closed position, the access opening is partially or entirely closable and, in an open position, the access opening is openable, wherein the cover comprises at least one actuating button that is mounted in an opening in the cover and is movable relative to the cover , or wherein the cover is formed in a transparent and or partially transparent and/or translucent manner, wherein a sensor arrangement is arranged behind the cover, said sensor arrangement serving to sense a person located in front of the cover, and wherein the sanitary element is a cistern having a drain valve that is able to be actuated by way of the actuating button or the sensor arrangement, characterized in that the sanitary installation furthermore comprises at least one push opener element that is connectable, in particular fixedly connectable, directly or indirectly to the wall and/or the access opening , and is connected to the cover , said push opener element locking the cover with respect to the access opening in a closed position, the cover being movable from the closed position into the open position and from the open position into the closed position by said push opener element when an actuating pressure is applied to the cover .
An image recording apparatus comprising: a liquid chamber for storing liquid used for recording of an image; a first electrode pin and a second electrode pin which are inserted into the liquid chamber; an application unit configured to apply a voltage between the first electrode pin and the second electrode pin; and a detection unit configured to detect a current which flows between the first electrode pin and the second electrode pin, characterized by being configured such that in a first period operation, the application unit applies the voltage between the first electrode pin and the second electrode pin, with the first electrode pin being used as an anode side and the second electrode pin being used as a cathode side, and the detection unit detects the current, and in a second period operation, the application unit applies the voltage between the first electrode pin and the second electrode pin, with the first electrode pin being used as the cathode side and the second electrode pin being used as the anode side. a liquid chamber for storing liquid used for recording of an image; a first electrode pin and a second electrode pin which are inserted into the liquid chamber; an application unit configured to apply a voltage between the first electrode pin and the second electrode pin; and a detection unit configured to detect a current which flows between the first electrode pin and the second electrode pin, characterized by being configured such that in a first period operation, the application unit applies the voltage between the first electrode pin and the second electrode pin, with the first electrode pin being used as an anode side and the second electrode pin being used as a cathode side, and the detection unit detects the current, and in a second period operation, the application unit applies the voltage between the first electrode pin and the second electrode pin, with the first electrode pin being used as the cathode side and the second electrode pin being used as the anode side.
A control or regulating device programmed to perform a blood treatment in cooperation with a blood treatment apparatus and programmed to perform a method for preparing an extracorporeal blood circuit for its use in a blood treatment on a patient, performed by means of the blood treatment apparatus and by means of a blood treatment device , which comprises a blood chamber and a dialysis liquid chamber separated therefrom by means of a membrane , wherein the method for preparing the extracorporeal blood circuit is performed when the dialysis liquid flow is halted or stopped or when the dialysis liquid flow is zero, and wherein the method comprises the following steps: - filling the extracorporeal blood circuit by means of a priming solution, the priming solution containing citrate, or filling the extracorporeal blood circuit by means of a priming solution and by means of a citrate solution; - filling the extracorporeal blood circuit by means of a fluid containing or consisting of blood. - filling the extracorporeal blood circuit by means of a priming solution, the priming solution containing citrate, or filling the extracorporeal blood circuit by means of a priming solution and by means of a citrate solution; - filling the extracorporeal blood circuit by means of a fluid containing or consisting of blood.
A decorative sheet comprising: a film layer having an upper face and a lower face, and a pressure-sensitive adhesive layer adhered to the lower face of the film layer, the pressure-sensitive adhesive layer containing a pressure sensitive adhesive composition containing an acrylic-based adhesive and 12 to 20 mass% of ammonium polyphosphate as solid components, where the total solid content of the pressure-sensitive adhesive is defined as 100 mass%, wherein a degree of polymerization of the ammonium polyphosphate is not less than 1000, and wherein a thickness of the film layer is from 10 to 350 μm, and a thickness of the pressure-sensitive adhesive layer is from 5 to 50 μm. a film layer having an upper face and a lower face, and a pressure-sensitive adhesive layer adhered to the lower face of the film layer, the pressure-sensitive adhesive layer containing a pressure sensitive adhesive composition containing an acrylic-based adhesive and 12 to 20 mass% of ammonium polyphosphate as solid components, where the total solid content of the pressure-sensitive adhesive is defined as 100 mass%, wherein a degree of polymerization of the ammonium polyphosphate is not less than 1000, and wherein a thickness of the film layer is from 10 to 350 μm, and a thickness of the pressure-sensitive adhesive layer is from 5 to 50 μm.
Locking system for locking a lid of a vehicle comprising: - a lid hinged by means of a hinge to a part of the body of a vehicle wherein an opening is obtained in such a way to close/open the opening , - a movement actuator mounted in the part of the body near the hinge and suitable for moving the lid from a closing position, wherein said opening is closed, to an opening position, wherein said opening is open, and vice versa, - a lock comprising a roto-translating pin with a head suitable for being engaged in a seat of the lid, in distal position from the hinge in order to lock the lid in closed position, - an actuator (1; 200) of the lock that moves said roto-translating pin from a retracted closing position to an extracted opening position, wherein said actuator (1; 200) comprises: - an electric motor , and - motion reduction means (R) disposed between the electric motor and the roto-translating pin in such a way to impose a roto-translation movement to the roto-translating pin; said electric motor being suitably configured so as to rotate in a first rotational direction to move the roto-translating pin from the retracted position in such a way to push the lid disposed in closing position, and in a second rotational direction to move the roto-translating pin from the extracted position to the retracted position in such a way to pull the lid towards the closing position. - a lid hinged by means of a hinge to a part of the body of a vehicle wherein an opening is obtained in such a way to close/open the opening , - a movement actuator mounted in the part of the body near the hinge and suitable for moving the lid from a closing position, wherein said opening is closed, to an opening position, wherein said opening is open, and vice versa, - a lock comprising a roto-translating pin with a head suitable for being engaged in a seat of the lid, in distal position from the hinge in order to lock the lid in closed position, - an actuator (1; 200) of the lock that moves said roto-translating pin from a retracted closing position to an extracted opening position, - an electric motor , and - motion reduction means (R) disposed between the electric motor and the roto-translating pin in such a way to impose a roto-translation movement to the roto-translating pin;
A method of using a dry silicone gel in a closure or interconnect system, the dry silicone gel having less than 10% oil bleed out under compression of 1.2 atm after 60 days at 60° C, and a compression set between 4% and 20% after 50% strain has been applied to the gel for 1000 hours at 70° C, wherein the dry silicone gel is made by reacting: a crosslinker, a chain extender, and a vinyl-terminated polydimethylsiloxane, and wherein the mole fraction of hydride present as cross-linker is between 0.2 and 0.5. a crosslinker, a chain extender, and a vinyl-terminated polydimethylsiloxane, and wherein the mole fraction of hydride present as cross-linker is between 0.2 and 0.5.
A mitral valve replacement system including an anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) received adjacent a native mitral valve and an artificial valve (543; 820) received by the anchoring structure, the mitral valve replacement system characterized by : the anchoring structure including commissural elements (106; 125; 140; 184; 202, 204; 212; 744) configured to engage commissural clefts in the native mitral valve to position the anchoring structure relative to the native mitral valve such that the commissural elements extend between leaflets of the native mitral valve without interfering with their functions, wherein the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) is sized and shaped to be implanted at a mitral valve annulus without reshaping the mitral valve annulus and the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) defines a supra-annular ring sized and shaped to be placed at the mitral valve annulus, the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) further including a projection configured to engage the mitral valve annulus along a posterior leaflet of the native mitral valve; and wherein the artificial valve (543; 820) is sealingly engaged with the anchoring structure. the anchoring structure including commissural elements (106; 125; 140; 184; 202, 204; 212; 744) configured to engage commissural clefts in the native mitral valve to position the anchoring structure relative to the native mitral valve such that the commissural elements extend between leaflets of the native mitral valve without interfering with their functions, wherein the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) is sized and shaped to be implanted at a mitral valve annulus without reshaping the mitral valve annulus and the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) defines a supra-annular ring sized and shaped to be placed at the mitral valve annulus, the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) further including a projection configured to engage the mitral valve annulus along a posterior leaflet of the native mitral valve; and wherein the artificial valve (543; 820) is sealingly engaged with the anchoring structure.
A device for securing a structure foot for its disassembly by cutting, comprising: - a lower portion provided with means for fastening to the structure foot below a cutting area (Z) of the structure foot; and - an upper portion provided with means for fastening to the structure foot above the cutting area (Z); wherein these two portions are two separate pieces and: - one of the lower and upper portions is integral with a hinge link arm by fastening an end of the hinge link arm to that lower or upper portion; and - the other of the lower and upper portions is integral with a receiving ring of the hinge link arm, the hinge link arm and the receiving ring being shaped for sliding insertion and disengagement of the hinge link arm into the receiving ring. - a lower portion provided with means for fastening to the structure foot below a cutting area (Z) of the structure foot; and - an upper portion provided with means for fastening to the structure foot above the cutting area (Z); wherein these two portions are two separate pieces and: - one of the lower and upper portions is integral with a hinge link arm by fastening an end of the hinge link arm to that lower or upper portion; and - the other of the lower and upper portions is integral with a receiving ring of the hinge link arm, - one of the lower and upper portions is integral with a hinge link arm by fastening an end of the hinge link arm to that lower or upper portion; and - the other of the lower and upper portions is integral with a receiving ring of the hinge link arm, the hinge link arm and the receiving ring being shaped for sliding insertion and disengagement of the hinge link arm into the receiving ring.
An isolated dengue virus-like particle (VLP) comprising a dengue serotype 1 virus (DENV-1) E-glycoprotein polypeptide comprising the amino acid sequence of SEQ ID NO: 1, and wherein the polypeptide has amino acid substitutions at residues corresponding to positions 106, 107, 310, 311, 364, 468, 478, 482 and 487 of SEQ ID NO: 1 and wherein the amino acid substitutions are an arginine at position 106, an aspartic acid at position 107, an aspartic acid at position 310, a lysine at position 311, a glutamine at position 364, an isoleucine at position 468, a threonine at position 478, a valine at position 482 and a leucine at position 487, and further comprising a dengue virus prM protein for use in a method of eliciting an immune response in a subject against dengue virus.
A method of determining a function defining calibration data points for use in estimating a fractional concentration of clinically-relevant DNA in a biological sample, the biological sample including the clinically-relevant DNA and other DNA, the biological sample being from a female pregnant with a fetus, the clinically-relevant DNA being fetal DNA, the method comprising: for each of a plurality of calibration samples: measuring a fractional concentration of clinically-relevant DNA in the calibration sample, measuring amounts of cell-free DNA fragments corresponding to a plurality of sizes, and calculating a first calibration value for a first parameter based on the amounts of DNA fragments at a first plurality of sizes; and determining a function that approximates the first calibration values across a plurality of fractional concentrations. for each of a plurality of calibration samples: measuring a fractional concentration of clinically-relevant DNA in the calibration sample, measuring amounts of cell-free DNA fragments corresponding to a plurality of sizes, and calculating a first calibration value for a first parameter based on the amounts of DNA fragments at a first plurality of sizes; and measuring a fractional concentration of clinically-relevant DNA in the calibration sample, measuring amounts of cell-free DNA fragments corresponding to a plurality of sizes, and calculating a first calibration value for a first parameter based on the amounts of DNA fragments at a first plurality of sizes; and determining a function that approximates the first calibration values across a plurality of fractional concentrations.
A variable compression device that is configured to change a compression ratio in a combustion chamber (R1) of an engine , the variable compression device comprising: a piston rod ; a fluid chamber (R3) which is formed in a crosshead connecting the piston rod to a connecting rod , and configured to move the piston rod in a direction in which a compression ratio is increased by supplying a boosted working fluid thereto; a boosting mechanism which is configured to boost the working fluid and supplies the boosted working fluid to the fluid chamber (R3); a detection unit of which at least a portion is provided to the piston rod , and which detects displacement of a position of the piston rod and outputs a signal including positional information of the piston rod ; and a controller which is configured to control the boosting mechanism on the basis of the positional information, characterized in that the detection unit includes a rod that is movably provided in a lid member of the crosshead into which an end portion of the piston rod is inserted, a biasing portion that presses the rod against a large diameter portion provided in a lower end portion of the piston rod , and a sensor portion that is configured to detect movement of the rod in a non-contact manner. a piston rod ; a fluid chamber (R3) which is formed in a crosshead connecting the piston rod to a connecting rod , and configured to move the piston rod in a direction in which a compression ratio is increased by supplying a boosted working fluid thereto; a boosting mechanism which is configured to boost the working fluid and supplies the boosted working fluid to the fluid chamber (R3); a detection unit of which at least a portion is provided to the piston rod , and which detects displacement of a position of the piston rod and outputs a signal including positional information of the piston rod ; and a controller which is configured to control the boosting mechanism on the basis of the positional information, characterized in that the detection unit includes a rod that is movably provided in a lid member of the crosshead into which an end portion of the piston rod is inserted, a biasing portion that presses the rod against a large diameter portion provided in a lower end portion of the piston rod , and a sensor portion that is configured to detect movement of the rod in a non-contact manner.
System for monitoring leaks of liquid from a spent fuel pool which includes a pipeline, a control module, a liquid level gauge connected to the control module, a leakage collector and a plurality of metal guards , wherein each welded joint in the spent fuel pool is fenced with one of the plurality of metal guards , characterized in that : each metal guard is connected to the pipeline by means of a tube with a valve , the pipeline is connected on both sides to the leakage collector which is equipped with the liquid level gauge , the control module is connected to all the valves and is configured to control the valves .
Electric motor comprising an electronics housing with motor electronics placed in it and a stator housing arranged at a distance axially to the electronics housing , wherein the electric motor is formed as an internal running motor, whereby a motor unit in the stator housing is formed by a rotor , with the stator laminated core surrounding the stator with a rotor , and a driveshaft , whereby a twin flow cooling wheel is arranged axially between the electronics housing and the stator housing , which during operation generates a first cooling air stream (P1) along the electronics housing and a second cooling air stream (P2) along the stator housing , and along at least one bearing shield axially adjoining the stator housing , wherein the motor unit is taken into the at least one bearing shield , and the at least one bearing shield adjoins the twin flow cooling wheel in an axial direction, wherein the electric motor is characterized by at least one stator cooling channel, which at least partially extends in an axial direction along the stator housing and along the at least one bearing shield and in a radial direction along the at least one bearing shield to the cooling wheel and in operation is streamed through by said first cooling air stream (P1) generated by said twin flow cooling wheel , and by an electronics cooling channel , which extends in an axial and radial direction at least partially along said electronics housing up to said cooling wheel and in operation is streamed through by said second cooling air stream (P2) generated by said twin flow cooling wheel .
Optoelectronic module , for example, laser projector, comprising a baseboard exhibiting a mounting surface and an optical component , such as a mirror or dichroic filter , joined on the mounting surface , characterized in a trough , such as of an aluminum alloy, affixed on the baseboard by means of a screw , such as an M3 screw, connecting the trough and baseboard , a cube affixed, preferably screwed, on the trough , and a holder holding the component and being kinematically mounted to the cube by means of setscrews connecting the holder and cube , wherein the component is joined through an adhesive filling the trough , embedding the head of the screw , and partly immersing the cube , holder , and component . a baseboard exhibiting a mounting surface and an optical component , such as a mirror or dichroic filter , joined on the mounting surface , characterized in a trough , such as of an aluminum alloy, affixed on the baseboard by means of a screw , such as an M3 screw, connecting the trough and baseboard , a cube affixed, preferably screwed, on the trough , and a holder holding the component and being kinematically mounted to the cube by means of setscrews connecting the holder and cube , wherein the component is joined through an adhesive filling the trough , embedding the head of the screw , and partly immersing the cube , holder , and component .
A core for an airfoil casting, comprising: a cantilevered core section ; and a boss extending from the cantilevered core section to an outer profile of the core ; wherein the core includes a plurality of outer core sections; wherein the boss extends from the cantilevered core section to the outer profile of the core between a pair of the outer core sections; and wherein the boss is configured to control the position of the cantilevered core section . a cantilevered core section ; and a boss extending from the cantilevered core section to an outer profile of the core ; wherein the core includes a plurality of outer core sections; wherein the boss extends from the cantilevered core section to the outer profile of the core between a pair of the outer core sections; and wherein the boss is configured to control the position of the cantilevered core section .