mhurhangee/ep-ind-claims huggingface dataset:
A medical device, comprising a sheath element suitable of being brought into contact, during a surgical operation, with live hard tissue and/or with hard tissue replacement material, the sheath element having a longitudinal bore defining a longitudinal opening reaching along a proximodistal axis from a proximal end of the sheath element into a distal direction, and a plurality of holes in a wall of the opening, the medical device further comprising a liquefiable element that is insertable or inserted in the longitudinal opening and at least partly liquefiable by the impact of energy impinging from the proximal side so that liquefied material flows through the holes in the wall and out of the longitudinal opening into structures of the hard tissue and/or hard tissue replacement material, characterized in that the holes are asymmetrical with respect to a radial direction.
Apparatus for the thermal treatment of divided solids, comprising at least one feeding member having a longitudinal axis and a helical portion which is mounted to rotate on said longitudinal axis in a tubular envelope, said helical portion having a heating surface to allow it to form a heating feeding means, characterised in that the tubular envelope has inner walls (41, 42) made of refractory material, and the helical portion of the feeding member is formed throughout from an electrically conductive material and is connected to at least one source for supplying electrical energy, said helical portion thus also forming a means for heating the inner walls (41, 42) to a temperature sufficient for said inner walls themselves to form at least part of the means for heating by radiation the mass of divided solids which makes its way through said tubular envelope.
A rotary sealing and cutting device, comprising a frame and upper and lower sealing and cutting mechanisms for sealing and cutting operations, wherein the sealing and cutting mechanism comprises a rotating shaft, a rotating base and a sealing and cutting assembly; the rotating base is connected to the rotating shaft; the rotating shaft is in transmission connection with a power source that drives the rotating shaft to rotate; the sealing and cutting assembly comprises a sealer, a cutter holder, a sliding block, a guide wheel base and guide wheels; the sealer is provided on the cutter holder; the cutter holder is connected to the guide wheel base through a connecting shaft; the sliding block is rotatably provided on the connecting shaft and slidably provided on the rotating base; two or more guide wheels are provided on the guide wheel base; the frame is provided thereon with an upper guide plate and a lower guide plate; the upper guide plate and the lower guide plate are respectively provided with a D-ring groove; linear groove sections of the upper and lower D-ring grooves are adjacent and parallel; the guide wheels of the upper sealing and cutting mechanism are in the D-ring groove of the upper guide plate; the guide wheels of the lower sealing and cutting mechanism are in the D-ring groove of the lower guide plate; wherein a cutter is provided on the cutter holder of the upper sealing and cutting mechanism; the cutter is located in a middle position of the sealer; the sealer of the lower sealing and cutting mechanism is provided with a cutter groove corresponding to the cutter.
An apparatus for securing a sensor (18, 610, 710) to a heart of a patient, the apparatus comprising: a heart anchor lead having a single main lead (14; 660); a first anchor (14; 620; 720) coupled to the main lead (14; 660) and extending from a branch point; a second anchor (14; 630; 730) coupled to the main lead (14; 660) and extending from the branch point; and a sensor (18, 610, 710) fixed to the apparatus at a point between the main lead (14; 660) and one or both of the anchors (14; 620, 630; 720, 730); wherein the sensor (18, 610, 710) is a motion sensor for detecting motion of the heart. a heart anchor lead having a single main lead (14; 660); a first anchor (14; 620; 720) coupled to the main lead (14; 660) and extending from a branch point; a second anchor (14; 630; 730) coupled to the main lead (14; 660) and extending from the branch point; and a sensor (18, 610, 710) fixed to the apparatus at a point between the main lead (14; 660) and one or both of the anchors (14; 620, 630; 720, 730); wherein the sensor (18, 610, 710) is a motion sensor for detecting motion of the heart.
Method of transferring a layer in a first material onto a second substrate in a second material, comprising: a) a step of forming a first embrittlement plane in a first substrate in first material, by a first ion and/or atom implantation through a first face of said substrate, b) a step of forming a second embrittlement plane in said first substrate, by a second ion and/or atom implantation through a second face of said substrate, in order to reduce a curvature of this first substrate, c) a step of assembling the first and second substrates (6, 7), or depositing the second substrate on the first substrate, d) a step of separating a layer from the first substrate at the level of the first embrittlement plane, without separation at the level of the second embrittlement plane. a) a step of forming a first embrittlement plane in a first substrate in first material, by a first ion and/or atom implantation through a first face of said substrate, b) a step of forming a second embrittlement plane in said first substrate, by a second ion and/or atom implantation through a second face of said substrate, in order to reduce a curvature of this first substrate, c) a step of assembling the first and second substrates (6, 7), or depositing the second substrate on the first substrate, d) a step of separating a layer from the first substrate at the level of the first embrittlement plane, without separation at the level of the second embrittlement plane.
A method of recovering pulp fibers from a used absorbent article which includes the pulp fibers and super absorbent polymers, the method comprising: a step of extracting a mixture of the pulp fibers, the super absorbent polymers, and water from the used absorbent article, a step of inactivating the super absorbent polymers by applying voltage to the mixture of the pulp fibers, the super absorbent polymers, and the water by using a pair of electrodes, and a step of separating the pulp fibers from a mixture of the pulp fibers, inactivated super absorbent polymers, and the water; wherein the super absorbent polymers are acrylic acid-type, starch-type, or amino acid-type, particulate or fibrous super absorbent polymers. a step of extracting a mixture of the pulp fibers, the super absorbent polymers, and water from the used absorbent article, a step of inactivating the super absorbent polymers by applying voltage to the mixture of the pulp fibers, the super absorbent polymers, and the water by using a pair of electrodes, and a step of separating the pulp fibers from a mixture of the pulp fibers, inactivated super absorbent polymers, and the water; wherein the super absorbent polymers are acrylic acid-type, starch-type, or amino acid-type, particulate or fibrous super absorbent polymers.
A direct injection internal combustion engine comprising: a cylinder having a cylinder bore with an axis; a cylinder head having an intake passage in one side part thereof and an exhaust passage in the other side part thereof as viewed in a side view of the cylinder in which the axis of the cylinder bore is coincident with a vertical line; an intake valve which opens and closes the intake passage; an exhaust valve which opens and closes the exhaust passage; a fuel injection valve configured to inject the fuel during an intake stroke and which can inject fuel obliquely downward from an outer side of the one side part of the cylinder head into the cylinder bore; and a spark plug located generally on the axis of the cylinder bore and having a discharging part positioned in the cylinder bore, characterised in that, the fuel injected from the fuel injection valve is spread out in the shape of a sector as viewed in the side view of the cylinder, wherein the fuel injection valve comprises a pair of right and left injection nozzles each of which has a vertically long rectangular shape, wherein the fuel injected from the fuel injection valve forms a V-shape with the discharging part between them as viewed in a plan view of the cylinder.
A printing device comprising: a casing having a cover configured to open and close; a lever provided in the casing, the lever being sealed off by the cover when the cover is closed, the lever being exposed outside the casing when the cover is open; and a holding unit whose state is configured to switch from a hold state configured to hold an information processing device to a release state configured to release the information processing device, in response to rotation of the lever by a user. a casing having a cover configured to open and close; a lever provided in the casing, the lever being sealed off by the cover when the cover is closed, the lever being exposed outside the casing when the cover is open; and a holding unit whose state is configured to switch from a hold state configured to hold an information processing device to a release state configured to release the information processing device, in response to rotation of the lever by a user.
A cylindrical secondary battery comprising: a jelly-roll type electrode assembly, having a structure in which a long sheet type positive electrode and a long sheet type negative electrode are wound with a separator interposed between the positive electrode and the negative electrode; a cylindrical battery case (101; 200; 300) configured to receive the jelly-roll type electrode assembly (120; 420; 520); and a piezoelectric element (110; 210; 310; 410; 510) configured to generate electrical energy due to a volumetric expansion of the jelly-roll type electrode assembly caused by charging and discharging the jelly-roll type electrode assembly, wherein the piezoelectric element comprises: a negative pole configured to be directly connected to the cylindrical battery case (101; 200; 300), or to be directly connected to a negative electrode tab of the jelly-roll type electrode assembly, and a positive pole configured to be connected to a positive pole of a top cap of the cylindrical secondary battery, or to be connected to a positive electrode tab of the jelly-roll type electrode assembly (420; 520). a jelly-roll type electrode assembly, having a structure in which a long sheet type positive electrode and a long sheet type negative electrode are wound with a separator interposed between the positive electrode and the negative electrode; a cylindrical battery case (101; 200; 300) configured to receive the jelly-roll type electrode assembly (120; 420; 520); and a piezoelectric element (110; 210; 310; 410; 510) configured to generate electrical energy due to a volumetric expansion of the jelly-roll type electrode assembly caused by charging and discharging the jelly-roll type electrode assembly, wherein the piezoelectric element comprises: a negative pole configured to be directly connected to the cylindrical battery case (101; 200; 300), or to be directly connected to a negative electrode tab of the jelly-roll type electrode assembly, and a positive pole configured to be connected to a positive pole of a top cap of the cylindrical secondary battery, or to be connected to a positive electrode tab of the jelly-roll type electrode assembly (420; 520). a negative pole configured to be directly connected to the cylindrical battery case (101; 200; 300), or to be directly connected to a negative electrode tab of the jelly-roll type electrode assembly, and a positive pole configured to be connected to a positive pole of a top cap of the cylindrical secondary battery, or to be connected to a positive electrode tab of the jelly-roll type electrode assembly (420; 520).
A method for monitoring the health of a rotating blade, comprising: generating a signal representative of delta times of arrival corresponding to the rotating blade, wherein the method comprises generating at least one of a signal representative of a static deflection in the rotating blade and a signal representative of a dynamic deflection in the rotating blade, characterized in that the generation of said at least one signal comprises generating the at least one signal (212, 216) by decomposing the signal representative of the delta times of arrival utilizing a multi-resolution analysis technique in selecting an appropriate wavelet based upon the signal representative of the delta times of arrival and a decomposition level; generating approximation coefficients and detailed coefficients utilizing the multi-resolution analysis technique and the appropriate wavelet until the decomposition level is achieved; and further at least one of equating the detailed coefficients to zero to generate the signal representative of the static deflection from the approximation coefficients and equating the approximation coefficients to zero to generate the signal representative of the dynamic deflection from the detailed coefficients. generating a signal representative of delta times of arrival corresponding to the rotating blade, wherein the method comprises generating at least one of a signal representative of a static deflection in the rotating blade and a signal representative of a dynamic deflection in the rotating blade, characterized in that the generation of said at least one signal comprises generating the at least one signal (212, 216) by decomposing the signal representative of the delta times of arrival utilizing a multi-resolution analysis technique in selecting an appropriate wavelet based upon the signal representative of the delta times of arrival and a decomposition level; generating approximation coefficients and detailed coefficients utilizing the multi-resolution analysis technique and the appropriate wavelet until the decomposition level is achieved; and further at least one of equating the detailed coefficients to zero to generate the signal representative of the static deflection from the approximation coefficients and equating the approximation coefficients to zero to generate the signal representative of the dynamic deflection from the detailed coefficients.
An apparatus for disassembling and assembling a lower vane carrier mounted inside a lower turbine casing, the apparatus comprising: a rolling jig that is configured for being mounted on the lower vane carrier, wherein, when the rolling jig is mounted on the lower vane carrier, an axial direction passes through a center between the lower vane carrier and the rolling jig; a bolt member that passes through a region where the rolling jig and the lower vane carrier are in contact with each other, the bolt member comprising a stem portion that passes through the rolling jig and that is configured for passing through the lower vane carrier, and a head portion that is connected to a first end of the stem portion, wherein a diameter of the head portion is larger than a diameter of the stem portion; and a block member mounted adjacent to the bolt member and disposed at a position close to the head portion of the bolt member, the block member comprising a pair of side surface block portions spaced apart from each other along the axial direction with respect to the head portion, and a connection block portion connecting the pair of side surface block portions to each other, so that the block member is configured to prevent the bolt member from being separated. a rolling jig that is configured for being mounted on the lower vane carrier, wherein, when the rolling jig is mounted on the lower vane carrier, an axial direction passes through a center between the lower vane carrier and the rolling jig; a bolt member that passes through a region where the rolling jig and the lower vane carrier are in contact with each other, the bolt member comprising a stem portion that passes through the rolling jig and that is configured for passing through the lower vane carrier, and a head portion that is connected to a first end of the stem portion, wherein a diameter of the head portion is larger than a diameter of the stem portion; and a block member mounted adjacent to the bolt member and disposed at a position close to the head portion of the bolt member, the block member comprising a pair of side surface block portions spaced apart from each other along the axial direction with respect to the head portion, and a connection block portion connecting the pair of side surface block portions to each other, so that the block member is configured to prevent the bolt member from being separated.
A method for black starting a wind turbine following islanding operation, wherein the wind turbine comprises auxiliary equipment, a generator, a converter electrically connectable to the generator, and an energy storage system, and wherein the generator is electrically connectable to the auxiliary equipment via the converter and the energy storage system is electrically connectable to the auxiliary equipment, the method including: Measuring a wind speed; if the measured wind speed is between the cut-in and cut-out wind speed of the wind turbine for a given time period (Δt), selecting the generator as a first power source to supply first power to the auxiliary equipment in V/f control mode and selecting the energy storage system as a second power source to adjust an amount of active power and reactive power fed to the auxiliary equipment by the first power source in consideration of the amount of active power and reactive power demand suitable for powering the auxiliary equipment; otherwise selecting the energy storage system as a first power source to supply power to the auxiliary equipment in V/f control mode and selecting the generator as a second power source to adjust an amount of active power and reactive power fed to the auxiliary equipment by the first power source in consideration of the amount of active power and reactive power demand suitable for powering the auxiliary equipment; and electrically connecting both of the selected first power source and the selected second power source to a power input terminal of the auxiliary equipment to supply the first power and the second power. Measuring a wind speed; if the measured wind speed is between the cut-in and cut-out wind speed of the wind turbine for a given time period (Δt), selecting the generator as a first power source to supply first power to the auxiliary equipment in V/f control mode and selecting the energy storage system as a second power source to adjust an amount of active power and reactive power fed to the auxiliary equipment by the first power source in consideration of the amount of active power and reactive power demand suitable for powering the auxiliary equipment; otherwise selecting the energy storage system as a first power source to supply power to the auxiliary equipment in V/f control mode and selecting the generator as a second power source to adjust an amount of active power and reactive power fed to the auxiliary equipment by the first power source in consideration of the amount of active power and reactive power demand suitable for powering the auxiliary equipment; and electrically connecting both of the selected first power source and the selected second power source to a power input terminal of the auxiliary equipment to supply the first power and the second power.
A method of improving full-length protein expression efficiency comprising: a) providing a polynucleotide comprising: i) a coding sequence for the full-length protein; ii) a primary initiation codon that is upstream of the coding sequence of the full-length protein, said primary initiation codon encoding the first amino acid of the coding sequence of the full-length protein; and iii) one or more secondary initiation codons, located within the coding sequence of the full-length protein downstream of the primary initiation codon; and b) mutating the one or more secondary initiation codons located within the coding sequence of the full-length protein downstream of the primary initiation codon, wherein the mutation results in a decrease in initiation of protein synthesis at the one or more secondary initiation codons resulting in a reduction of ribosomal diversion away from the primary initiation codon, thereby increasing expression efficiency of the full-length protein initiated at the primary initiation codon, wherein mutating the one or more secondary initiation codons located within the coding sequence of the full-length protein downstream of the primary initiation codon comprises mutating one or more nucleotides such that the amino acid sequence of the protein remains unaltered. a) providing a polynucleotide comprising: i) a coding sequence for the full-length protein; ii) a primary initiation codon that is upstream of the coding sequence of the full-length protein, said primary initiation codon encoding the first amino acid of the coding sequence of the full-length protein; and iii) one or more secondary initiation codons, located within the coding sequence of the full-length protein downstream of the primary initiation codon; and i) a coding sequence for the full-length protein; ii) a primary initiation codon that is upstream of the coding sequence of the full-length protein, said primary initiation codon encoding the first amino acid of the coding sequence of the full-length protein; and iii) one or more secondary initiation codons, located within the coding sequence of the full-length protein downstream of the primary initiation codon; and b) mutating the one or more secondary initiation codons located within the coding sequence of the full-length protein downstream of the primary initiation codon, wherein the mutation results in a decrease in initiation of protein synthesis at the one or more secondary initiation codons resulting in a reduction of ribosomal diversion away from the primary initiation codon,
A numerical control machine for cutting at least one sheet or a multilayer of sheets of material to be processed, comprising: - a processing area; - conveying means adapted to feed the sheet into said processing area along a forward direction; - tool heads adapted to operate on the sheet in said processing area; and - an accessory apparatus (50; 50') for feeding sheets of material, said accessory apparatus (50; 50') comprising at least two beams characterized in that said beams are fixed to the numerical control cutting machine, wherein the beams develop in projection with respect to a frontal portion of said machine, said beams supporting, in spaced relation with respect to the frontal portion of the machine, at least two pairs of opposite main slots for holding as many transversal support bars intended to support a roll or another support element for supporting a sheet of material to be cut. - a processing area; - conveying means adapted to feed the sheet into said processing area along a forward direction; - tool heads adapted to operate on the sheet in said processing area; and - an accessory apparatus (50; 50') for feeding sheets of material, said accessory apparatus (50; 50') comprising at least two beams characterized in that said beams are fixed to the numerical control cutting machine, wherein the beams develop in projection with respect to a frontal portion of said machine, said beams supporting, in spaced relation with respect to the frontal portion of the machine, at least two pairs of opposite main slots for holding as many transversal support bars intended to support a roll or another support element for supporting a sheet of material to be cut.