mhurhangee/ep-ind-claims huggingface dataset:
A mobile carriage for connecting a retractor blade to a retractor frame member, said mobile carriage comprising: a track engagement feature; a blade post holder configured to yaw, pitch, roll, and translate proximally and distally relative to the track engagement feature, the blade post holder having a post engagement feature configured to hold a cylindrical post such that the post is free to translate along the post's longitudinal axis relative to the blade post holder, and free to rotate about the post's longitudinal axis, but is otherwise constrained from moving relative to the blade post holder; a carriage locking mechanism in contact with the blade post holder, configured to reversibly exert compressive force on the blade post holder to inhibit the blade post holder from yaw, pitch, and roll relative to the track engagement feature, wherein such compressive force causes the post engagement feature to exert compressive force on the cylindrical post to restrict the post from translating along the post's longitudinal axis; characterized in that the carriage locking mechanism comprises a thumb switch coupled to a cam that confers compressive force on the blade post holder via a spring and a plurality of washers (72, 74, 76) interposed between the thumb switch and the post holder. a track engagement feature; a blade post holder configured to yaw, pitch, roll, and translate proximally and distally relative to the track engagement feature, the blade post holder having a post engagement feature configured to hold a cylindrical post such that the post is free to translate along the post's longitudinal axis relative to the blade post holder, and free to rotate about the post's longitudinal axis, but is otherwise constrained from moving relative to the blade post holder; a carriage locking mechanism in contact with the blade post holder, configured to reversibly exert compressive force on the blade post holder to inhibit the blade post holder from yaw, pitch, and roll relative to the track engagement feature, wherein such compressive force causes the post engagement feature to exert compressive force on the cylindrical post to restrict the post from translating along the post's longitudinal axis; characterized in that the carriage locking mechanism comprises a thumb switch coupled to a cam that confers compressive force on the blade post holder via a spring and a plurality of washers (72, 74, 76) interposed between the thumb switch and the post holder.
A yarn comprising elongated pieces of expanded graphite sheet that are packed in a tubular member made of knitted or braided fibers, wherein each of the elongated pieces of expanded graphite sheet has a shape like an elongated, thin plate characterized in that the yarn has a flattened shape and each elongated piece of expanded graphite sheet is twisted around its own longitudinal center line at one or more turns the shape having flexed portions and a longitudinal intermediate portion that is bent at each of the flexed portions; and a longitudinal end of the shape is rotated by 180 degrees per turn around the longitudinal center line while another longitudinal end of the shape is fixed. wherein each of the elongated pieces of expanded graphite sheet has a shape like an elongated, thin plate characterized in that the yarn has a flattened shape and each elongated piece of expanded graphite sheet is twisted around its own longitudinal center line at one or more turns the shape having flexed portions and a longitudinal intermediate portion that is bent at each of the flexed portions; and a longitudinal end of the shape is rotated by 180 degrees per turn around the longitudinal center line while another longitudinal end of the shape is fixed.
A mixing impeller comprising: - a first subassembly in which at least one magnet is accommodated, wherein the magnet is adapted to be magnetically coupled to a drive device to be driven; and - a second subassembly comprising at least one impeller blade for mixing components when rotating the mixing impeller; wherein the first and second subassemblies (3,5) are formed as separate entities which are selectively engageable, wherein the first and second subassemblies (3,5) are engageable by means of a snap-fit mechanism; wherein the first subassembly comprises at least one recess, which extends substantially along a rotation axis of the mixing impeller, wherein the recess has at least one protrusion; characterized in that the second subassembly comprises at least one engagement member extending from a lower surface of the second subassembly, which faces the first subassembly in a mounted state, the engagement member has an enlarged end portion at its free end which is engageable with the protrusion in the recess in the first subassembly when inserting the engagement member of the second subassembly into the recess of the first subassembly, and all elements of the second subassembly are unitarily formed. - a first subassembly in which at least one magnet is accommodated, wherein the magnet is adapted to be magnetically coupled to a drive device to be driven; and - a second subassembly comprising at least one impeller blade for mixing components when rotating the mixing impeller; wherein the first and second subassemblies (3,5) are formed as separate entities which are selectively engageable, wherein the first and second subassemblies (3,5) are engageable by means of a snap-fit mechanism; wherein the first subassembly comprises at least one recess, which extends substantially along a rotation axis of the mixing impeller, wherein the recess has at least one protrusion; characterized in that the second subassembly comprises at least one engagement member extending from a lower surface of the second subassembly, which faces the first subassembly in a mounted state, the engagement member has an enlarged end portion at its free end which is engageable with the protrusion in the recess in the first subassembly when inserting the engagement member of the second subassembly into the recess of the first subassembly, and all elements of the second subassembly are unitarily formed.
A Cas9 system for altering a sequence of a target nucleic acid in a cell, wherein the Cas9 system comprises: an HDR-enhancer molecule, wherein the HDR-enhancer is an inhibitor of one or more of the Ku70/Ku80 complex, XRCC4, XLF, 53BP1, Rif1, PtIP, Fbh1, RTEL, PARI, Artemis, Rap80, XRCC1, Ligase I, Ligase III, Polymerase theta, Rad52, ERCC1, XPF, Exo 1, KDM4A, Setd2, HDAC1, HDAC2, or EZH2; a dominant negative form of 53BP1 or CtiP; a Cas9 molecule, and a gRNA molecule, wherein the gRNA molecule is capable of targeting the Cas9 molecule to the target nucleic acid in the cell. an HDR-enhancer molecule, wherein the HDR-enhancer is an inhibitor of one or more of the Ku70/Ku80 complex, XRCC4, XLF, 53BP1, Rif1, PtIP, Fbh1, RTEL, PARI, Artemis, Rap80, XRCC1, Ligase I, Ligase III, Polymerase theta, Rad52, ERCC1, XPF, Exo 1, KDM4A, Setd2, HDAC1, HDAC2, or EZH2; a dominant negative form of 53BP1 or CtiP; a Cas9 molecule, and a gRNA molecule, wherein the gRNA molecule is capable of targeting the Cas9 molecule to the target nucleic acid in the cell.
A glass fiber-reinforced resin molded article, wherein glass fiber included in the glass fiber-reinforced resin molded article comprises a flat cross-sectional shape having a minor axis D1 in a range of 4.0 μm or more and 6.0 μm or less and a major axis D2 in a range of 16.0 μm or more and 24.0 μm or less, wherein a ratio of the major axis D2 to the minor axis D1 of the glass fiber (D2/D1) is in a range of 2.0 or more and 6.0 or less, a number average fiber length L (μm) of the glass fiber included in the glass fiber-reinforced resin molded article is in a range of 195 μm or more and less than 400 μm, a glass fiber content C (wt%) in the glass fiber-reinforced resin molded article is in a range of more than 50.0 wt% and 80.0 wt% or less, and the D1, D2, L, and C satisfy following formula: 1200.0 ≤ C × L 2 / D 1 × D 2 2 ≤ 2550.0 wherein the minor axis D1, the major axis D2, the number average fiber length L and the glass fiber content C are determined as defined in the specification. glass fiber included in the glass fiber-reinforced resin molded article comprises a flat cross-sectional shape having a minor axis D1 in a range of 4.0 μm or more and 6.0 μm or less and a major axis D2 in a range of 16.0 μm or more and 24.0 μm or less, wherein a ratio of the major axis D2 to the minor axis D1 of the glass fiber (D2/D1) is in a range of 2.0 or more and 6.0 or less, a number average fiber length L (μm) of the glass fiber included in the glass fiber-reinforced resin molded article is in a range of 195 μm or more and less than 400 μm, a glass fiber content C (wt%) in the glass fiber-reinforced resin molded article is in a range of more than 50.0 wt% and 80.0 wt% or less, and the D1, D2, L, and C satisfy following formula: 1200.0 ≤ C × L 2 / D 1 × D 2 2 ≤ 2550.0 wherein the minor axis D1, the major axis D2, the number average fiber length L and the glass fiber content C are determined as defined in the specification.
Method for operating a technical plant comprising a work area for producing ready-to-ship products from delivered goods, wherein the technical plant comprises a plurality of load carriers for transporting goods and for transporting products, wherein each load carrier comprises a controller, a drive connected to the controller, and a communication interface, wherein goods are delivered to the technical plant, wherein delivered goods are transported into the work area by the load carriers, wherein products are produced in the work area from the goods transported into the work area, wherein produced products are transported out of the work area by the load carriers, and wherein products transported out of the work area are shipped out from the technical plant, characterized in that products are produced from the goods on the load carriers in the work area, and in that at least one of the load carriers comprises a lifting device, which has a platform for receiving products and goods, the platform being movable in a vertical direction between a loading position and a working position, a first group of conveyor rollers, which are arranged upstream of the lifting device in a conveying direction, and a second group of conveyor rollers, which are arranged downstream of the lifting device in the conveying direction. a work area for producing ready-to-ship products from delivered goods, wherein the technical plant comprises a plurality of load carriers for transporting goods and for transporting products, wherein each load carrier comprises a controller, a drive connected to the controller, and a communication interface, wherein goods are delivered to the technical plant, wherein delivered goods are transported into the work area by the load carriers, wherein products are produced in the work area from the goods transported into the work area, wherein produced products are transported out of the work area by the load carriers, and wherein products transported out of the work area are shipped out from the technical plant, characterized in that products are produced from the goods on the load carriers in the work area, and in that at least one of the load carriers comprises a lifting device, which has a platform for receiving products and goods, the platform being movable in a vertical direction between a loading position and a working position, a first group of conveyor rollers, which are arranged upstream of the lifting device in a conveying direction, and a second group of conveyor rollers, which are arranged downstream of the lifting device in the conveying direction.
A woven shoe upper (202, 900, 1202, 1302) comprising: a plurality of wefts having a first modulus of elasticity; a plurality of warps having a second modulus of elasticity; a lockout strand (914, 916, 918, 1006, 1106, 1214, 1310) having a third modulus of elasticity, the third modulus of elasticity is greater than the first modulus of elasticity and greater than the second modulus of elasticity, wherein the lockout strand (914, 916, 918, 1006, 1106, 1214, 1310) is interwoven with the plurality of warps and the plurality of wefts in the woven upper portion (202, 900, 1202, 1302); wherein the woven shoe upper (202, 900, 1202, 1302) has a greater degree of elasticity in a medial-to-lateral direction that in a toe-to-heel direction and characterized in that the directional difference in elasticity is accomplished by the plurality of wefts or the plurality of warps having a greater modulus of elasticity than the other of the plurality of wefts or the plurality of warps. a plurality of wefts having a first modulus of elasticity; a plurality of warps having a second modulus of elasticity; a lockout strand (914, 916, 918, 1006, 1106, 1214, 1310) having a third modulus of elasticity, the third modulus of elasticity is greater than the first modulus of elasticity and greater than the second modulus of elasticity, wherein the lockout strand (914, 916, 918, 1006, 1106, 1214, 1310) is interwoven with the plurality of warps and the plurality of wefts in the woven upper portion (202, 900, 1202, 1302); wherein the woven shoe upper (202, 900, 1202, 1302) has a greater degree of elasticity in a medial-to-lateral direction that in a toe-to-heel direction and characterized in that the directional difference in elasticity is accomplished by the plurality of wefts or the plurality of warps having a greater modulus of elasticity than the other of the plurality of wefts or the plurality of warps.
A method for manufacturing a root section of a wind turbine blade assembly, the method comprising: assembling a mold having an inner cylinder segment, an outer cylinder segment, and a bottom flange, wherein a radial space is defined between the inner and outer cylinder segments; affixing a plurality of root hub connectors circumferentially around the bottom flange so that the root hub connectors extend into the radial space; loading a first cartridge of pultruded rods into the space, wherein the first cartridge includes a plurality of first pultruded rods arranged adjacent to the inner cylinder segment, wherein said pultruded rods have a diameter within a range of 3.0 mm to 37.5 mm; sealing over the space in the mold, and evacuating the space; infusing a resin into the space so that the resin migrates between the pultruded rods, and curing the resin; and removing the cured root section from the mold. assembling a mold having an inner cylinder segment, an outer cylinder segment, and a bottom flange, wherein a radial space is defined between the inner and outer cylinder segments; affixing a plurality of root hub connectors circumferentially around the bottom flange so that the root hub connectors extend into the radial space; loading a first cartridge of pultruded rods into the space, wherein the first cartridge includes a plurality of first pultruded rods arranged adjacent to the inner cylinder segment, wherein said pultruded rods have a diameter within a range of 3.0 mm to 37.5 mm; sealing over the space in the mold, and evacuating the space; infusing a resin into the space so that the resin migrates between the pultruded rods, and curing the resin; and removing the cured root section from the mold.
A loading tube to be used in a perforating gun, comprising: a hollow tube (110; 154) to hold a detonating cord, the hollow tube comprising a bottom section, at least one intermediate section and a top section, the top section comprising an upper component and a lower component, each of the upper and lower component (120, 122) having a receiving structure (121, 123) configured to engage with a flange of the at least one intermediate section so that rotation between the top section and the intermediate section is prevented; and a plurality of holding structures affixed to the hollow tube (110;154); wherein each of the plurality of holding structures is spaced at a predetermined distance and phase angle from the next of the plurality of holding structures; and wherein each of the plurality of holding structures is adapted to securely engage a shaped charge. a hollow tube (110; 154) to hold a detonating cord, the hollow tube comprising a bottom section, at least one intermediate section and a top section, the top section comprising an upper component and a lower component, each of the upper and lower component (120, 122) having a receiving structure (121, 123) configured to engage with a flange of the at least one intermediate section so that rotation between the top section and the intermediate section is prevented; and a plurality of holding structures affixed to the hollow tube (110;154); wherein each of the plurality of holding structures is spaced at a predetermined distance and phase angle from the next of the plurality of holding structures; and wherein each of the plurality of holding structures is adapted to securely engage a shaped charge.
Body structure for an electrically operated vehicle, comprising an installation space for a traction battery, which installation space is open in the vehicle vertical direction (z), is delimited toward the upper side of the vehicle by a floor panel part forming the vehicle floor and is delimited in the vehicle longitudinal direction (x) toward the rear of the vehicle by a body-side battery cross-member, a rear-axle subframe being connected to the vehicle body via subframe bearings in the vehicle longitudinal direction (x) behind the battery cross-member, the rear-axle subframe comprising lateral subframe longitudinal members, which are connected to a front subframe cross-member at front corner nodes, the front subframe cross-member being spaced apart from the battery cross-member by a longitudinal offset (Δx), characterized in that the rear-axle subframe is elongated at each of the two front corner nodes by a support element which at least partially bridges the free longitudinal offset (Δx) between the subframe cross-member and the battery cross-member, and in that in the event of a rear collision, the rear-axle subframe with its two support elements and its two subframe longitudinal members and the battery cross-member are integrated into a rear collision load path (L x).
A light emitting device (30, 40) comprising: a laser diode; a wavelength converting member which is configured to convert a wavelength of a light emitted from the laser diode; and a support member which has a through-hole, and which is configured to support the wavelength converting member so that the light passes through two surfaces of the wavelength converting member in the through-hole, wherein: the wavelength converting member comprises a fluorescent material and a binder, a light transmissive member is disposed on one surface of the wavelength converting member, which surface is opposed to another surface which is directed to the laser diode, the binder has a melting point higher than a melting point of the light transmissive member, the light transmissive member is fixed to an inner wall of the through-hole of the support member and the surface of the wavelength converting member, which surface is opposed to the surface which is directed to the laser diode, by fusion bonding, and characterised in that the light transmissive member comprises a fluorescent material. a laser diode; a wavelength converting member which is configured to convert a wavelength of a light emitted from the laser diode; and a support member which has a through-hole, and which is configured to support the wavelength converting member so that the light passes through two surfaces of the wavelength converting member in the through-hole, the wavelength converting member comprises a fluorescent material and a binder, a light transmissive member is disposed on one surface of the wavelength converting member, which surface is opposed to another surface which is directed to the laser diode, the binder has a melting point higher than a melting point of the light transmissive member, the light transmissive member is fixed to an inner wall of the through-hole of the support member and the surface of the wavelength converting member, which surface is opposed to the surface which is directed to the laser diode, by fusion bonding, and characterised in that the light transmissive member comprises a fluorescent material.
A method of loading a stack of conical paint strainers within a dispenser while minimizing strainer contamination, comprising the steps of: providing the stack of strainers that is enclosed within a protective material, the protective material generally conforming to a shape of the stack and comprising a cylindrical portion at an upper end and a conical portion at a lower end; placing the enclosed stack of strainers in the dispenser; and removing the protective material from the stack of strainers while the stack of strainers is in the dispenser; wherein: the protective material is configured to be separable into individual portions, and the step of removing includes removing a first portion while the remaining protective material remains within the dispenser; and the step of removing further includes subsequent removal of the remaining protective material from the dispenser. providing the stack of strainers that is enclosed within a protective material, the protective material generally conforming to a shape of the stack and comprising a cylindrical portion at an upper end and a conical portion at a lower end; placing the enclosed stack of strainers in the dispenser; and removing the protective material from the stack of strainers while the stack of strainers is in the dispenser; wherein: the protective material is configured to be separable into individual portions, and the step of removing includes removing a first portion while the remaining protective material remains within the dispenser; and the step of removing further includes subsequent removal of the remaining protective material from the dispenser. the protective material is configured to be separable into individual portions, and the step of removing includes removing a first portion while the remaining protective material remains within the dispenser; and the step of removing further includes subsequent removal of the remaining protective material from the dispenser.