mhurhangee/ep-ind-claims huggingface dataset:
A sealing device, comprising an intermediate bushing, which by forming a gap seal is arranged between an outer sleeve and an inner body which is mounted to be movable therein relative thereto, characterized in that chambers which can be filled with a pressurized liquid are provided between the intermediate bushing and the adjacent outer sleeve, said chambers being laterally delimited by sealing elements, whereby the seal comprises a sealing ring, which on the one hand is supported on the inner wall of the outer sleeve and on the other hand on the intermediate bushing, whereby the sealing ring is held in a holder.
A hydraulic drive system for an operation table that is provided with an independent movement state and a synchronous movement state; the system comprises an oil supply device for supplying hydraulic oil, an oil return device and a hydraulic cylinder circuit component; the hydraulic cylinder circuit component comprises two hydraulic cylinders (261,262), each hydraulic cylinder (261,262) comprising a first chamber (2611,2621) without a piston rod and a second chamber (2612,2622) with a piston rod (2613,2623) located therewithin; the hydraulic cylinder circuit component also comprises two directional valve components and two bi-directional hydraulic locks, wherein said hydraulic cylinders (261,262), said directional valve components and said bi-directional hydraulic locks correspond to one other; the first chamber (2611,2621) of each hydraulic cylinder (261,262) is connected with a working port of its corresponding directional valve component through a first flow pass, and the second chamber (2612,2622) of each hydraulic cylinder (261,262) is connected with another working port of its corresponding directional valve component through a second flow pass; an oil inlet port of each directional valve component is connected with the oil supply device, an oil return port of each directional valve component is directly connected with the oil return device, and another oil return port of each directional valve component is connected with the oil return device through a return line that is arranged with an on-off control valve; the first flow pass and the second flow pass that correspond to each hydraulic cylinder (261,262) are capable of being bi-directionally switched on and off using the bi-directional hydraulic lock corresponding to said hydraulic cylinder (261,262); the second chamber (2612,2622) of one hydraulic cylinder (261,262) is connected in series with the first chamber (2611,2621) of the other hydraulic cylinder (261,262); in the independent movement state, the return line is switched on by the on-off control valve; in the synchronous movement state, the return line is shut off by the on-off control valve.
A composition consisting of a poly(arylene sulfide); 0.5 to 5 weight percent of a polysiloxane/polyimide block copolymer; 5 to 50 weight percent of glass fiber, and an optional 0.1 to 5 weight percent talc wherein weight percent is based on the combined weight of poly(arylene sulfide), polysiloxane/polyimide block copolymer and glass fiber, and an optional additive selected from the group consisting of a mold release agent, a UV absorber, a heat stabilizer, a light stabilizer, a lubricant, a plasticizer, a pigment, a dye, a colorant, an anti-static agent, or a combination thereof, wherein the polysiloxane/polyimide block copolymer has greater than or equal to 10 weight percent siloxane content, based on the total weight of the polysiloxane/polyimide block copolymer and the composition retains greater than or equal to 60% of the initial viscosity after being retained at 320°C for 30 minutes and the composition has an OSU peak heat release less than 45 kW/m 2 when measured using the method of FAR F25.4 and according to FAR 25.853 and further wherein the composition is free of platy filler.
A compressed air energy storage power generation device comprising: a compressor that is mechanically connected to a driving machine and compresses air; a first pressure accumulation unit that is configured to store compressed air compressed by the compressor; an expander driven by compressed air supplied from the first pressure accumulation unit; a power generator mechanically connected to the expander; a first heat exchanger that is configured to exchange heat between a heat medium and the compressed air supplied from the compressor to the first pressure accumulation unit; a second heat exchanger that is configured to exchange heat between the heat medium and the compressed air supplied from the first pressure accumulation unit to the expander; an SOC detection unit that is configured to detect SOC, that is state of charge, of the first pressure accumulation unit; an SOC regulating unit that is configured to regulate the SOC of the first pressure accumulation unit; and a control device that is configured to control the SOC regulating unit such that the SOC detected by the SOC detection unit is within an optimal SOC range while satisfying a requested power, said optimal SOC range being a range of SOC by which the operating efficiencies of the compressor and the expander are improved, wherein the SOC regulating unit includes a valve (17, 45c, 45d) for permitting/blocking flow of compressed air from the first pressure accumulation unit to the expander. a compressor that is mechanically connected to a driving machine and compresses air; a first pressure accumulation unit that is configured to store compressed air compressed by the compressor; an expander driven by compressed air supplied from the first pressure accumulation unit; a power generator mechanically connected to the expander; a first heat exchanger that is configured to exchange heat between a heat medium and the compressed air supplied from the compressor to the first pressure accumulation unit; a second heat exchanger that is configured to exchange heat between the heat medium and the compressed air supplied from the first pressure accumulation unit to the expander; an SOC detection unit that is configured to detect SOC, that is state of charge, of the first pressure accumulation unit; an SOC regulating unit that is configured to regulate the SOC of the first pressure accumulation unit; and a control device that is configured to control the SOC regulating unit such that the SOC detected by the SOC detection unit is within an optimal SOC range while satisfying a requested power, said optimal SOC range being a range of SOC by which the operating efficiencies of the compressor and the expander are improved, wherein the SOC regulating unit includes a valve (17, 45c, 45d) for permitting/blocking flow of compressed air from the first pressure accumulation unit to the expander.
A marine propulsion device comprising: a motive force transmission system including a crank shaft and a drive shaft configured to transmit motive force from the crank shaft, a propeller shaft configured to transmit motive force from the drive shaft, a housing section which houses the motive force transmission system, and a clutch (32, 44, 52) attached between the motive force transmission system and the housing section, the clutch (32, 44, 52) being configured to permit relative rotation between the motive force transmission system and the housing section by opening a connection between the motive force transmission system and the housing section during normal rotation of the motive force transmission system, characterized in that the clutch (32, 44, 52) is configured to suppress the relative rotation between the motive force transmission system and the housing section by connecting the motive force transmission system and the housing section during reverse rotation of the motive force transmission system, wherein the clutch (32, 44, 52) includes a housing section-side gear which is attached to the housing section and a drive shaft-side gear which is attached to the drive shaft, and the drive shaft and the housing section are connected by the housing section-side gear and the drive shaft-side gear being engaged during reverse rotation of the drive shaft. a motive force transmission system including a crank shaft and a drive shaft configured to transmit motive force from the crank shaft, a propeller shaft configured to transmit motive force from the drive shaft, a housing section which houses the motive force transmission system, and a clutch (32, 44, 52) attached between the motive force transmission system and the housing section, the clutch (32, 44, 52) being configured to permit relative rotation between the motive force transmission system and the housing section by opening a connection between the motive force transmission system and the housing section during normal rotation of the motive force transmission system, characterized in that the clutch (32, 44, 52) is configured to suppress the relative rotation between the motive force transmission system and the housing section by connecting the motive force transmission system and the housing section during reverse rotation of the motive force transmission system, wherein the clutch (32, 44, 52) includes a housing section-side gear which is attached to the housing section and a drive shaft-side gear which is attached to the drive shaft, and the drive shaft and the housing section are connected by the housing section-side gear and the drive shaft-side gear being engaged during reverse rotation of the drive shaft.
A method of validating a predicted pathway activity of a pathway in a solid tumor of a subject, with a digital computer, the method comprising: a) obtaining omics data from a tumor associated sample obtained from the subject; b) applying the omics data obtained in (a) to a digital computer programmed with a pathway analysis engine configured to generate predicted tumor cell pathway activities in silico, to provide a prediction of tumor cell sensitivity to one or more pharmaceutically active anticancer compounds effective for treating the subject's tumor; c) interrogating enriched viable tumor cells obtained from the subject with said at least one pharmaceutically active compound known to interact with a pathway element of one or more of the tumor cell pathways predicted by (b), to measure anticancer activity of the at least one pharmaceutically active compound with respect to the subject's enriched viable tumor cells; wherein the enriched viable tumor cells are at least one of the following: (i) circulating tumor cells (CTCs) isolated from the subject's blood, and (ii) tumor cells isolated from the subject and engrafted into an irradiated mouse. a) obtaining omics data from a tumor associated sample obtained from the subject; b) applying the omics data obtained in (a) to a digital computer programmed with a pathway analysis engine configured to generate predicted tumor cell pathway activities in silico, to provide a prediction of tumor cell sensitivity to one or more pharmaceutically active anticancer compounds effective for treating the subject's tumor; c) interrogating enriched viable tumor cells obtained from the subject with said at least one pharmaceutically active compound known to interact with a pathway element of one or more of the tumor cell pathways predicted by (b), to measure anticancer activity of the at least one pharmaceutically active compound with respect to the subject's enriched viable tumor cells; wherein the enriched viable tumor cells are at least one of the following: (i) circulating tumor cells (CTCs) isolated from the subject's blood, and (ii) tumor cells isolated from the subject and engrafted into an irradiated mouse. (i) circulating tumor cells (CTCs) isolated from the subject's blood, and (ii) tumor cells isolated from the subject and engrafted into an irradiated mouse.
A wearable article (8, 108, 208) for soap bubble generation, comprising: an article having at least two films (11, 13) of liquid-resistant material sealed on at least one common edge and forming a pocket between said films; and a distal web provided integrally with said article and extending distally from said sealed common edge, said distal web adapted to be dipped in bubble solution and having at least one hole adapted to form soap bubbles when said web is dipped in bubble solution and air is moved through said at least one hole, wherein said web is formed by fusion of said at least two films (11, 13) at respective distal ends of said at least two films (11, 13). an article having at least two films (11, 13) of liquid-resistant material sealed on at least one common edge and forming a pocket between said films; and a distal web provided integrally with said article and extending distally from said sealed common edge, said distal web adapted to be dipped in bubble solution and having at least one hole adapted to form soap bubbles when said web is dipped in bubble solution and air is moved through said at least one hole, wherein said web is formed by fusion of said at least two films (11, 13) at respective distal ends of said at least two films (11, 13).
An isolated double stranded ribonucleic acid (dsRNA) comprising first and second nucleic acid strands and a duplex region of at least 25 base pairs, wherein said second strand of said dsRNA comprises 1-5 single-stranded nucleotides at its 3' terminus, wherein said second oligonucleotide strand is sufficiently complementary to SEQ. ID NO: 164 or 4938 along at least 19 nucleotides and at most 35 nucleotides of said second oligonucleotide strand length to reduce KRAS target gene expression when said double stranded nucleic acid is introduced into a mammalian cell.
A drive circuit for driving an electromagnetic fuel-injection valve, the electromagnetic fuel-injection valve comprising: a valve element that closes a fuel path by abutting against a valve seat and opens the fuel path by separating from the valve seat; a movable element transmitting a force between the valve element and the movable element to conduct a valve opening and closing operation; an electromagnet provided as a drive unit for the movable element, the electromagnet including a coil. and a magnetic core; and a biasing unit configured to bias the valve element to a reverse direction of a direction of a driving force by the drive unit, the drive circuit comprising: a unit capable of applying to the coil a voltage boosted to a voltage higher than a battery voltage; and a unit configured to, when a drive current is provided to the electromagnetic fuel-injection valve so that the electromagnetic fuel-injection valve conducts fuel injection at least two times in a single stroke of a combustion engine, set an application sequence of a boosted voltage different between the first injection and either one of the second and the subsequent injections so that a power consumption by a boosted voltage applied in the first injection is smaller than a power consumption by a boosted voltage applied in either one of the second and the subsequent injections. a unit capable of applying to the coil a voltage boosted to a voltage higher than a battery voltage; and a unit configured to, when a drive current is provided to the electromagnetic fuel-injection valve so that the electromagnetic fuel-injection valve conducts fuel injection at least two times in a single stroke of a combustion engine, set an application sequence of a boosted voltage different between the first injection and either one of the second and the subsequent injections so that a power consumption by a boosted voltage applied in the first injection is smaller than a power consumption by a boosted voltage applied in either one of the second and the subsequent injections.
Circuitry (32a-e) for temperature measurement using temperature-dependent sensor resistors (36, 39a-e), wherein different temperature-dependent sensor resistors are selectable by a change in supply voltage (U V) and the measurement results are transferable via a bipolar connection, characterized by: - at least three unit arrangements of a first type, each including a semiconductor device (41a-d, 46e) and in series thereto a temperature-dependent sensor resistor (39a-e), - at least two unit arrangements (M2-M4) of a second type, each provided by one of the unit arrangements of the first type and a semiconductor device (41c"-41d"; 42d"; 46e") connected in series thereto, wherein each unit arrangement (M2-M4) of the second type is connected in parallel to the previous unit arrangement of the first type, - a supply voltage (U V), - a bipolar connection, - a measuring resistor connected in series to unit arrangements of the first type, - a voltage dropping across the measuring resistor, wherein said voltage drops by a sum current composed of two partial currents across the measuring resistor, wherein each partial current flows through exactly one unit arrangement of the first type or one unit arrangement (M2-M4) of the second type. - at least three unit arrangements of a first type, each including a semiconductor device (41a-d, 46e) and in series thereto a temperature-dependent sensor resistor (39a-e), - at least two unit arrangements (M2-M4) of a second type, each provided by one of the unit arrangements of the first type and a semiconductor device (41c"-41d"; 42d"; 46e") connected in series thereto, wherein each unit arrangement (M2-M4) of the second type is connected in parallel to the previous unit arrangement of the first type, - a supply voltage (U V), - a bipolar connection, - a measuring resistor connected in series to unit arrangements of the first type, - a voltage dropping across the measuring resistor, wherein said voltage drops by a sum current composed of two partial currents across the measuring resistor, wherein each partial current flows through exactly one unit arrangement of the first type or one unit arrangement (M2-M4) of the second type.
Transformer having a housing, filled with a liquid, an electrical switch being arranged in the housing and the electrical switch being filled with an insulating and cooling medium, and also the electrical switch being tightly sealed by a housing wall, characterized in that at least one compensation element arranged in the housing is connected to the electrical switch and compensates for volume changes in the insulating and cooling medium.
Heat exchanger having a heat exchanger block and having countercurrent plate heat exchangers which are arranged in the heat exchanger block, the outside air inlet being arranged in the lower block region and the incoming air outlet being arranged in the upper block region on the first side of the heat exchanger block, the exhaust air outlet being arranged in the lower block region and the outgoing air inlet being arranged in the upper block region on the opposite second side of the heat exchanger block, and an air deflection device being arranged in front of the first side of the heat exchanger block, having at least one first deflection duct which connects the lower outside air inlet of the heat exchanger block to an upper outside air inlet of the air deflection device, and having at least one second deflection duct which crosses the first deflection duct and connects the upper incoming air outlet of the heat exchanger block to a lower incoming air outlet of the air deflection device, a second air deflection device being arranged in front of the second side of the heat exchanger block, having at least one first deflection duct which connects the lower exhaust air outlet of the heat exchanger block to an upper exhaust air outlet of the second air deflection device, and having at least one second deflection duct which crosses the first deflection duct of the second air deflection device and connects the upper outgoing air inlet of the heat exchanger block to a lower outgoing air inlet of the second air deflection device.
A catheter delivery system, comprising: a guidewire; a catheter comprising a lumen, a distal end, and a proximal end; a self-expanding sheath slidably disposed in the lumen, the self-expanding sheath comprising a distal end and a proximal end, the self-expanding sheath being capable of moving from a collapsed state within the catheter to an expanded state outside the catheter during deployment with an outer diameter greater than an inner diameter of the catheter; wherein the self-expanding sheath and the catheter are advanceable in tandem over the guidewire such that as the distal end of the self-expanding sheath is moved distally relative to the catheter, the self-expanding sheath expands to the expanded state, further comprising a snug fit between the self-expanding sheath and the catheter, characterised by: the distal end of the self-expanding sheath comprising a tapered tip, and a snug fit between an inner diameter of the distal end of the self-expanding sheath and the guidewire. a guidewire; a catheter comprising a lumen, a distal end, and a proximal end; a self-expanding sheath slidably disposed in the lumen, the self-expanding sheath comprising a distal end and a proximal end, the self-expanding sheath being capable of moving from a collapsed state within the catheter to an expanded state outside the catheter during deployment with an outer diameter greater than an inner diameter of the catheter; wherein the self-expanding sheath and the catheter are advanceable in tandem over the guidewire such that as the distal end of the self-expanding sheath is moved distally relative to the catheter, the self-expanding sheath expands to the expanded state, further comprising a snug fit between the self-expanding sheath and the catheter, characterised by: the distal end of the self-expanding sheath comprising a tapered tip, and a snug fit between an inner diameter of the distal end of the self-expanding sheath and the guidewire. the distal end of the self-expanding sheath comprising a tapered tip, and a snug fit between an inner diameter of the distal end of the self-expanding sheath and the guidewire.
A mixer for mixing two to-be-mixed materials, the mixer comprising a casing and a mixing component, the mixing component comprising: a first vertical wall and a second vertical wall disposed in opposite and parallel to the first vertical wall; an inlet baffle disposed on one end of the first vertical wall and the second vertical wall, the inlet baffle separating the two to-be-mixed materials into two streams; an outlet baffle disposed on the other end of the first vertical wall and the second vertical wall, the outlet baffle exporting the streams; and a plurality of first arc shape guiding plates and second arc shape guiding plates disposed between the inlet baffle and the outlet baffle, the first arc shape guiding plates and the second arc shape guiding plates being mutually spaced and disposed in opposite; each second arc shape guiding plate has one side thereof provided with a gap and the other side thereof provided with a first path through where the streams pass; characterized in that the first arc shape guiding plates extend from the first vertical wall toward the outlet baffle, the second arc shape guiding plates extend from the second vertical wall toward the inlet baffle. a first vertical wall and a second vertical wall disposed in opposite and parallel to the first vertical wall; an inlet baffle disposed on one end of the first vertical wall and the second vertical wall, the inlet baffle separating the two to-be-mixed materials into two streams; an outlet baffle disposed on the other end of the first vertical wall and the second vertical wall, the outlet baffle exporting the streams; and a plurality of first arc shape guiding plates and second arc shape guiding plates disposed between the inlet baffle and the outlet baffle, the first arc shape guiding plates and the second arc shape guiding plates being mutually spaced and disposed in opposite; each second arc shape guiding plate has one side thereof provided with a gap and the other side thereof provided with a first path through where the streams pass; characterized in that the first arc shape guiding plates extend from the first vertical wall toward the outlet baffle, the second arc shape guiding plates extend from the second vertical wall toward the inlet baffle.