mhurhangee/patent-ind-claim-en huggingface dataset:
A method for erecting a wind turbine tower, the method comprising the steps of: - providing a tower section comprising a lower flange and an upper flange , each flange being provided with a plurality of through-going bolt holes , - providing a plurality of stud bolts and a pair of nuts for each stud bolt , - mounting a nut to one end of each stud bolt , - orienting the tower section in an upright position with the lower flange below the upper flange , - positioning stud bolts in the plurality of bolt holes in the lower flange with the nuts arranged on an upper side of the lower flange , - lifting the tower section to a mounting position on top of another tower section , - forming a flange combination by aligning the through-going bolt holes formed in the lower flange of the tower section with through-going bolt holes formed in an upper flange of the other tower section , while advancing the stud bolts through the bolt holes , - mounting a nut on a lower part of each of the stud bolts , and - tensioning the stud bolts , thereby securing the tower section to the other tower section . - providing a tower section comprising a lower flange and an upper flange , each flange being provided with a plurality of through-going bolt holes , - providing a plurality of stud bolts and a pair of nuts for each stud bolt , - mounting a nut to one end of each stud bolt , - orienting the tower section in an upright position with the lower flange below the upper flange , - positioning stud bolts in the plurality of bolt holes in the lower flange with the nuts arranged on an upper side of the lower flange , - lifting the tower section to a mounting position on top of another tower section , - forming a flange combination by aligning the through-going bolt holes formed in the lower flange of the tower section with through-going bolt holes formed in an upper flange of the other tower section , while advancing the stud bolts through the bolt holes , - mounting a nut on a lower part of each of the stud bolts , and - tensioning the stud bolts , thereby securing the tower section to the other tower section .
Method for ablating brittle-hard material by means of laser radiation, in which an ablation depression with a flank angle w of the flanks of the ablation depression is formed in the material by the ablation and cracks of a first, second and third type are formed in the material in the region of the ablation depression , wherein the flank angle w is defined as the angle between the surface normal on one flank of the ablation depression and the surface normal on the non-ablated surface of the material , wherein during ablation the flank angle w does not exceed a material-specific limit angle wmax, and wherein cracks of the first type are defined as those which already occur on the rear side of the material when no damage and also no ablation has yet taken place on the front side from where the laser radiation is incident, wherein cracks of the second type, starting from a leading edge , defined as the transition from the non-ablated surface of the material into the lateral ablation flank of the ablation depression being formed, and cracks of a third type starting from the flank of the ablation depression damage the material , characterised in that the beam radius of the laser radiation at the entrance to the ablation recess is set so small that the flank angle w reaches almost 90 degrees of angle and the achievable ablation depth (z) is greater by at least a factor of 2 than for a larger beam radius at which the flank angle is smaller than the material-specific limit angle wmax, defined as the angle which, according to experimental findings, is established after many pulses of the laser radiation for a specific beam radius and a specific material and beyond which no further ablation can take place, so that cracks of the second type and cracks of the third type are avoided or significantly suppressed, the value for the beam radius is determined by gradually reducing the beam radius until a threshold-like change in the flank angle w from values w ≤ wmax less than or equal to the material-specific limit angle wmax to large values of the flank angle w of almost 90 degrees of angle occurs.
A shock absorber apparatus comprising: an upper rack frame configured to secure a bottom frame of a rack , the upper rack frame comprising a first plurality of rail assemblies ; a middle plate comprising a second plurality of rail assemblies and a first plurality of carriers corresponding with the first plurality of rail assemblies of the upper rack frame , wherein the first plurality of rail assemblies is configured to restrict movement of the first plurality of carriers to a first axis (y-axis); and a lower rack frame comprising a second plurality of carriers corresponding with the second plurality of rail assemblies of the middle plate , wherein the second plurality of rail assemblies is configured to restrict movement of the second plurality of carriers to a second axis (x-axis) characterized in that the lower rack frame comprises a plurality of dampers preventing movement of the rack in a third axis (z-axis) and in that the plurality of dampers is disposed between the lower rack frame and the second plurality of carriers . an upper rack frame configured to secure a bottom frame of a rack , the upper rack frame comprising a first plurality of rail assemblies ; a middle plate comprising a second plurality of rail assemblies and a first plurality of carriers corresponding with the first plurality of rail assemblies of the upper rack frame , wherein the first plurality of rail assemblies is configured to restrict movement of the first plurality of carriers to a first axis (y-axis); and a lower rack frame comprising a second plurality of carriers corresponding with the second plurality of rail assemblies of the middle plate , wherein the second plurality of rail assemblies is configured to restrict movement of the second plurality of carriers to a second axis (x-axis) characterized in that the lower rack frame comprises a plurality of dampers preventing movement of the rack in a third axis (z-axis) and in that the plurality of dampers is disposed between the lower rack frame and the second plurality of carriers .
An apparatus for drying a product (P), such as a bulk material among others, said apparatus comprising: a treatment chamber configured for treating said product (P); a generation unit configured for generating a gas and/or steam flow (F) through the treatment chamber ; a weight determination means configured for determining a value representative of the weight of said product (P) in substantially real time during treatment of said product (P); a conditioning means configured for controlling in substantially real time at least one property of the gas and/or steam flow (F) through the treatment chamber , as a function of the determined value representative of the weight of said product (P); wherein the treatment chamber comprises a support configured for supporting the product (P) during treatment; wherein said support is connected to the weight determination means such that the weight determination means measures the weight of the support and the value representative of the weight of the product (P) on the support ; wherein the support is connected to the weight determination means by at least one connection element (102; 112); characterized in that the weight determination means is located outside the treatment chamber ; and in that said at least one connection element (102; 112) partially protrudes outside the treatment chamber through a wall (110; 110') of the treatment chamber . a treatment chamber configured for treating said product (P); a generation unit configured for generating a gas and/or steam flow (F) through the treatment chamber ; a weight determination means configured for determining a value representative of the weight of said product (P) in substantially real time during treatment of said product (P); a conditioning means configured for controlling in substantially real time at least one property of the gas and/or steam flow (F) through the treatment chamber , as a function of the determined value representative of the weight of said product (P); wherein the treatment chamber comprises a support configured for supporting the product (P) during treatment; wherein said support is connected to the weight determination means such that the weight determination means measures the weight of the support and the value representative of the weight of the product (P) on the support ; wherein the support is connected to the weight determination means by at least one connection element (102; 112); characterized in that the weight determination means is located outside the treatment chamber ; and in that said at least one connection element (102; 112) partially protrudes outside the treatment chamber through a wall (110; 110') of the treatment chamber .
A robotic mower comprising: a chassis; a cutting motor driving at least one cutting blade; and a height adjustment assembly including a height adjustment motor configured to adjust a height of a motor bracket via rotation of a height adjustment screw driven by the height adjustment motor , the motor bracket providing structural support for the cutting motor at an adjustable level relative to the chassis, wherein the height adjustment assembly further comprises a screw engagement nut operably coupled to the motor bracket, the screw engagement nut having teeth configured to engage threads of the height adjustment screw and, responsive to rotation of the height adjustment screw , move up or down along a length of the height adjustment screw . a chassis; a cutting motor driving at least one cutting blade; and a height adjustment assembly including a height adjustment motor configured to adjust a height of a motor bracket via rotation of a height adjustment screw driven by the height adjustment motor , the motor bracket providing structural support for the cutting motor at an adjustable level relative to the chassis, wherein the height adjustment assembly further comprises a screw engagement nut operably coupled to the motor bracket, the screw engagement nut having teeth configured to engage threads of the height adjustment screw and, responsive to rotation of the height adjustment screw , move up or down along a length of the height adjustment screw .
A method for preparing a rotor , including: a step of preparing the rotor core , in which a plurality of hole portions arranged along the peripheral portion of a through hole through which a rotating shaft is penetrated are formed, a step of inserting a magnet into the hole portion , a step of heating a fixing resin composition in the solid state and moving the fixing resin composition in the molten state, and filling the molten fixing resin composition in a separation portion between the hole portion and the magnet by using an insert molding, a step of curing the resin composition to obtain a fixing member , and a step of inserting the rotating shaft into the through hole of the rotor core while fixing and installing the rotating shaft in the rotor core , wherein the fixing resin composition includes a thermosetting resin (A) containing an epoxy resin, a curing agent (B), and an inorganic filler (C), the content of the inorganic filler (C) is equal to or more than 50% by mass and equal to or less than 93% by mass, based on 100% by mass of the total content of the fixing resin composition, and the glass transition temperature (Tg) of the fixing member is equal to or higher than 150°C. a step of preparing the rotor core , in which a plurality of hole portions arranged along the peripheral portion of a through hole through which a rotating shaft is penetrated are formed, a step of inserting a magnet into the hole portion , a step of heating a fixing resin composition in the solid state and moving the fixing resin composition in the molten state, and filling the molten fixing resin composition in a separation portion between the hole portion and the magnet by using an insert molding, a step of curing the resin composition to obtain a fixing member , and a step of inserting the rotating shaft into the through hole of the rotor core while fixing and installing the rotating shaft in the rotor core , wherein the fixing resin composition includes a thermosetting resin (A) containing an epoxy resin, a curing agent (B), and an inorganic filler (C), the content of the inorganic filler (C) is equal to or more than 50% by mass and equal to or less than 93% by mass, based on 100% by mass of the total content of the fixing resin composition, and the glass transition temperature (Tg) of the fixing member is equal to or higher than 150°C. a thermosetting resin (A) containing an epoxy resin, a curing agent (B), and an inorganic filler (C), the content of the inorganic filler (C) is equal to or more than 50% by mass and equal to or less than 93% by mass, based on 100% by mass of the total content of the fixing resin composition, and the glass transition temperature (Tg) of the fixing member is equal to or higher than 150°C.
A method of forming a nickel-cobalt material using an electrodeposition process , the method comprising: heat treating a nickel-cobalt material within a first temperature zone below the onset temperature for grain growth in the material , the first temperature zone being from 600K to 750K (326.9 °C to 476.9 °C), wherein the nickel-cobalt material consists of nickel, cobalt and a dopant, wherein the dopant is phosphorus, the concentration of the dopant in the nickel-cobalt material being from 100 ppm to 20,000 ppm by weight, the concentration of nickel in the nickel-cobalt material being from 50% to 80% by weight, and the concentration of the cobalt in the nickel-cobalt material being from 20% to 50% by weight; wherein the method comprises heat treating the nickel-cobalt material within the first temperature zone for a period of from 30 minutes to 36 hours. heat treating a nickel-cobalt material within a first temperature zone below the onset temperature for grain growth in the material , the first temperature zone being from 600K to 750K (326.9 °C to 476.9 °C), wherein the nickel-cobalt material consists of nickel, cobalt and a dopant, wherein the dopant is phosphorus, the concentration of the dopant in the nickel-cobalt material being from 100 ppm to 20,000 ppm by weight, the concentration of nickel in the nickel-cobalt material being from 50% to 80% by weight, and the concentration of the cobalt in the nickel-cobalt material being from 20% to 50% by weight; wherein the method comprises heat treating the nickel-cobalt material within the first temperature zone for a period of from 30 minutes to 36 hours.
A system comprising: an energy storage device ; a memory module with on-die error correction code (ECC) capacity that, when executed, causes the memory module to perform error correction operations comprising a scrub operation; a memory controller configured to cause the error correction operations to be performed during a scrub operation with a programmable patrol scrub period defining a time frame in which to scrub a plurality of addresses of the memory module, the memory controller configured to set the patrol scrub period based on a power status of the energy storage device, wherein the power status indicates whether the energy storage device is charging or discharging, the memory controller configured to operate independent of an error correction operation performable by the on-die ECC . an energy storage device ; a memory module with on-die error correction code (ECC) capacity that, when executed, causes the memory module to perform error correction operations comprising a scrub operation; a memory controller configured to cause the error correction operations to be performed during a scrub operation with a programmable patrol scrub period defining a time frame in which to scrub a plurality of addresses of the memory module, the memory controller configured to set the patrol scrub period based on a power status of the energy storage device, wherein the power status indicates whether the energy storage device is charging or discharging, the memory controller configured to operate independent of an error correction operation performable by the on-die ECC .
An antisense oligomer which causes skipping of the 55th exon in the human dystrophin gene, which consists of a complementary sequence to the nucleotide sequences consisting of the 14th to the 34th or the 15th to the 34th nucleotides, from the 5' end of the 55th exon in the human dystrophin gene.
Tank container for the storage and/or transport of gas and/or liquid, said tank container comprising a frame and an elongated and essentially cylindrical tank vessel comprising two head-ends and a shell ; said frame comprising at each head-end a head-end frame comprising two top corner fittings , two bottom corner fittings and two upright container posts ; whereby said shell comprises, at each head-end , an annular end frame doubler plate ; whereby, at each head-end , said container posts are permanently connected to said end frame doubler plate by means of a bridge element disposed between said container post and said end frame doubler plate and permanently connected to said container post and said end frame doubler plate , preferably by a weld, whereby said tank container comprises a reference volume defined by said two top and bottom corner fittings of each head-end frame ; whereby said tank vessel extends along a longitudinal direction of said tank container beyond said reference volume; and whereby said end frame doubler plate , at at least one head-end and preferably at each head-end near said bridge element , extends distally along the longitudinal direction of said tank container over a distance of at least 50 mm beyond a centre of said bridge element , with more preference at least 175 mm, with still more preference at least 225 mm, with most preference approximately 275 mm.
A composition comprising an oligonucleotide that specifically binds a complementary sequence of a pre-mRNA that undergoes splicing to form an mRNA encoding a glutamate activated α-amino-3-hydroxy-5-methyl-4-isoxazolepropionic acid (AMPA) receptor subunit (GluR), wherein said oligonucleotide is selected from the group consisting of SEQ ID NOs: 57-400 and a sequence having at least 90% identity with any of SEQ ID NOs: 57-400; and wherein said binding results in a decreased expression of the flip isoform of said GluR.
Method for introducing and deploying cleaning robots (R) into and from a cart , wherein each cleaning robot (R) is automatically introduced into the cart and the cleaning robots (R) are automatically deployed from the cart in a sequence on the basis of the cleaning effort assigned to them or in a sequence specified by a user of the cart .
An active energy ray curable ink composition comprising at least (A) a scaly metallic pigment, (B) a polymerizable compound, (D) a photo initiator, a solvent, and (P) a resin, wherein the scaly metallic pigment has a 50% volume average diameter of 0.05 μm or more and less than 0.5 μm, specified according to the method disclosed in the description, and an average thickness of 5.0 nm or more and less than 50 nm, the solvent is a non-reactive solvent that does not participate in polymerization and is contained in a content of 0.01 weight% to 5.00 weight% of the composition, and the resin (P) has a weight average molecular weight of 12000 or less as measured by gel permeation chromatography (GPC) using polystyrene as the reference substance and an acid value of 5 to 100.
A tank cover of a urea tank for SCR aftertreatment system, wherein the tank cover is mounted at a liquid injection port of a urea tank body of the urea tank, a ventilation hole is provided at a part of the tank cover corresponding to the liquid injection port, the ventilation hole is covered by a water-impermeable and air-permeable membrane , an air inlet hole and an air outlet hole are provided at the part of the tank cover corresponding to the liquid injection port, a first constant pressure check valve and a second constant pressure check valve are mounted on the tank cover, an inlet of the first constant pressure check valve is butted with the air outlet hole , and an outlet of the first constant pressure check valve is in communication with outside of the tank body, an inlet of the second constant pressure check valve is butted with the air inlet hole, and an outlet of the second constant pressure check valve is in communication with inside of the tank body. an air inlet hole and an air outlet hole are provided at the part of the tank cover corresponding to the liquid injection port, a first constant pressure check valve and a second constant pressure check valve are mounted on the tank cover, an inlet of the first constant pressure check valve is butted with the air outlet hole , and an outlet of the first constant pressure check valve is in communication with outside of the tank body, an inlet of the second constant pressure check valve is butted with the air inlet hole, and an outlet of the second constant pressure check valve is in communication with inside of the tank body.
Lift arm for vehicle lift , said lift arm comprising: - at least one base body extending between a first end portion and a second end portion along an extension path (D), - at least one distal body extending between a respective first end portion and a second end portion along a respective extension path (T), wherein the distal body is rotatably mounted to the base body about at least one axis (Z), - at least one lock system configured to block the relative rotation between the base body and the distal body , said lock system comprising at least one insert movable at least between: ∘ a release position where said insert is configured to allow relative rotation between the base body and the distal body , and ∘ a gripping position where said insert is configured to block relative rotation between the base body and the distal body , characterized by the fact that the insert of the lock system is carried by at least one of said base body and distal body , wherein the insert is slidingly movable with respect to at least one of said base body and distal body between the gripping position and the release position, and vice versa, along at least one trajectory substantially parallel to at least one section of at least one of said extension path (D) of the base body and said extension path (T) of the distal body . - at least one base body extending between a first end portion and a second end portion along an extension path (D), - at least one distal body extending between a respective first end portion and a second end portion along a respective extension path (T), wherein the distal body is rotatably mounted to the base body about at least one axis (Z), - at least one lock system configured to block the relative rotation between the base body and the distal body , said lock system comprising at least one insert movable at least between: ∘ a release position where said insert is configured to allow relative rotation between the base body and the distal body , and ∘ a gripping position where said insert is configured to block relative rotation between the base body and the distal body , ∘ a release position where said insert is configured to allow relative rotation between the base body and the distal body , and ∘ a gripping position where said insert is configured to block relative rotation between the base body and the distal body ,