mhurhangee/patent-ind-claim-en huggingface dataset:
Collet chuck for clamping a tool shank, having a chuck body , a collet and a multiple-part clamping nut which is composed of a clamping ring and a threaded portion that are connected to one another in a rotatable and otherwise form-fitting manner by way of rolling members , characterized in that the clamping ring and the collet have coupling elements which act in a form-fitting manner and are designed such that the collet , through the central opening of the clamping ring held on the chuck body , said central opening facing away from the latter, can be inserted into the collet receptacle in that coupling elements move past one another and the coupling elements thereupon, by twisting the clamping ring relative to the collet , can be brought to mutually engage such that the clamping ring , by way of the coupling elements, can transmit the forces, which have been imparted to said clamping ring by the threaded portion during tightening, to the collet and drive the collet into the chuck body , and in that the collet and the chuck body have interacting first and second form-fitting elements (17; 18) which ensure that the collet can be inserted into the chuck body only in one or a plurality of pre-defined twisted positions.
A thermoplastic resin composition comprising: about 100 parts by weight of a polycarbonate resin; about 5 parts by weight to about 15 parts by weight of a first rubber-modified vinyl graft copolymer obtained through graft polymerization of a monomer mixture comprising an aromatic vinyl monomer and a vinyl cyanide monomer to a rubber polymer; about 2 parts by weight to about 8 parts by weight of a second rubber-modified vinyl graft copolymer obtained through graft polymerization of an alkyl (meth)acrylate monomer to a rubber polymer; about 0.5 parts by weight to about 2 parts by weight of siloxane copolyester; about 17 to about 40 parts by weight of talc; and about 13 parts by weight to about 23 parts by weight of a phosphorus flame retardant, wherein a weight ratio of the first rubber-modified vinyl graft copolymer to the second rubber-modified vinyl graft copolymer is about 1:0.15 to about 1:0.8 and a weight ratio of the sum of the first rubber-modified vinyl graft copolymer and the second rubber-modified vinyl graft copolymer to the siloxane copolyester is about 1:0.03 to about 1:0.1. about 100 parts by weight of a polycarbonate resin; about 5 parts by weight to about 15 parts by weight of a first rubber-modified vinyl graft copolymer obtained through graft polymerization of a monomer mixture comprising an aromatic vinyl monomer and a vinyl cyanide monomer to a rubber polymer; about 2 parts by weight to about 8 parts by weight of a second rubber-modified vinyl graft copolymer obtained through graft polymerization of an alkyl (meth)acrylate monomer to a rubber polymer; about 0.5 parts by weight to about 2 parts by weight of siloxane copolyester; about 17 to about 40 parts by weight of talc; and about 13 parts by weight to about 23 parts by weight of a phosphorus flame retardant, wherein a weight ratio of the first rubber-modified vinyl graft copolymer to the second rubber-modified vinyl graft copolymer is about 1:0.15 to about 1:0.8 and a weight ratio of the sum of the first rubber-modified vinyl graft copolymer and the second rubber-modified vinyl graft copolymer to the siloxane copolyester is about 1:0.03 to about 1:0.1.
An antibody that binds transforming growth factor beta (TGFβ)1, TGFβ2 and TGFβ3 comprising: (a) a heavy chain CDR1 amino acid sequence set forth in SEQ ID NO: 19; (b) a heavy chain CDR2 amino acid sequence set forth in SEQ ID NO: 20; and (c) a heavy chain CDR3 amino acid sequence set forth in SEQ ID NO: 21; (d) a light chain CDR1 amino acid sequence set forth in SEQ ID NO: 22; (e) a light chain CDR2 amino acid sequence set forth in SEQ ID NO: 23; and (f) a light chain CDR3 amino acid sequence set forth in SEQ ID NO: 24; wherein the antibody binds to TGFβ1 and TGFβ2 with greater affinity than TGFβ3 and binds TGFβ1 and TGFβ2 with an affinity Kd of 10 -9 M or less as measured by surface plasmon resonance or kinetic exclusion assay. (a) a heavy chain CDR1 amino acid sequence set forth in SEQ ID NO: 19; (b) a heavy chain CDR2 amino acid sequence set forth in SEQ ID NO: 20; and (c) a heavy chain CDR3 amino acid sequence set forth in SEQ ID NO: 21; (d) a light chain CDR1 amino acid sequence set forth in SEQ ID NO: 22; (e) a light chain CDR2 amino acid sequence set forth in SEQ ID NO: 23; and (f) a light chain CDR3 amino acid sequence set forth in SEQ ID NO: 24; wherein the antibody binds to TGFβ1 and TGFβ2 with greater affinity than TGFβ3 and binds TGFβ1 and TGFβ2 with an affinity Kd of 10 -9 M or less as measured by surface plasmon resonance or kinetic exclusion assay.
A front vehicle-body structure of a vehicle, the front vehicle-body structure comprising a pair of left and right front side frames extending in a vehicle front-rear direction, wherein: each of the front side frames includes an outer member and an inner member ; the outer member and the inner member each have a vertical wall surface portion in which a recessed bead or a protruding bead is formed; the recessed bead or the protruding bead is configured to extend in the vehicle front-rear direction from a front to at least a position next to a suspension tower portion ; a reinforcement disposed so as to extend in the vehicle front-rear direction and extend in an up-down direction so as to divide a closed cross-section of the front side frame into left and right is included between the inner member and the outer member of the front side frame to which the suspension tower portion is connected; the reinforcement is formed to be joined to upper flange portions and lower flange portions of the outer member and the inner member of the front side frame with the reinforcement being interposed between the upper flange portions and between the lower flange portions and to linearly extend in the up-down direction; and openings long in the up-down direction are formed in the reinforcement so as to be spaced apart from each other at a predetermined interval in the vehicle front-rear direction. each of the front side frames includes an outer member and an inner member ; the outer member and the inner member each have a vertical wall surface portion in which a recessed bead or a protruding bead is formed; the recessed bead or the protruding bead is configured to extend in the vehicle front-rear direction from a front to at least a position next to a suspension tower portion ; a reinforcement disposed so as to extend in the vehicle front-rear direction and extend in an up-down direction so as to divide a closed cross-section of the front side frame into left and right is included between the inner member and the outer member of the front side frame to which the suspension tower portion is connected; the reinforcement is formed to be joined to upper flange portions and lower flange portions of the outer member and the inner member of the front side frame with the reinforcement being interposed between the upper flange portions and between the lower flange portions and to linearly extend in the up-down direction; and openings long in the up-down direction are formed in the reinforcement so as to be spaced apart from each other at a predetermined interval in the vehicle front-rear direction.
A method of producing fibers (320; 1120; 1810; 2110; 230), comprising: placing a composition comprising one or more fluoropolymers and a fluorinated solvent into a body of a fiber producing device (100; 601; 701; 801; 901; 1001; 1300; 1400; 1600; 1901; 2000; 2200; 2400; 2500), the body comprising one or more openings (106; 1111; 1304; 2004; 2450; 2550), each opening defining an opening axis that is not parallel with a rotating axis of the fiber producing device; rotating the fiber producing device at a speed of at least 500 rpm, wherein rotation of the fiber producing device causes the composition in the body to be passed through the one or more openings to produce microfibers and/or nanofibers comprising one or more of the fluoropolymers; and collecting at least a portion of the produced microfibers and/or nanofibers; wherein the one or more fluoropolymers comprises polytetrafluoroethylene (PTFE); and wherein a diameter of the one or more openings ranges from 0.01 mm to 0.80 mm. placing a composition comprising one or more fluoropolymers and a fluorinated solvent into a body of a fiber producing device (100; 601; 701; 801; 901; 1001; 1300; 1400; 1600; 1901; 2000; 2200; 2400; 2500), the body comprising one or more openings (106; 1111; 1304; 2004; 2450; 2550), each opening defining an opening axis that is not parallel with a rotating axis of the fiber producing device; rotating the fiber producing device at a speed of at least 500 rpm, wherein rotation of the fiber producing device causes the composition in the body to be passed through the one or more openings to produce microfibers and/or nanofibers comprising one or more of the fluoropolymers; and collecting at least a portion of the produced microfibers and/or nanofibers; wherein the one or more fluoropolymers comprises polytetrafluoroethylene (PTFE); and wherein a diameter of the one or more openings ranges from 0.01 mm to 0.80 mm.
A fuse assembly comprising: a fuse body ; a terminal assembly disposed within the fuse body and having first and second opposing surfaces, the terminal assembly comprising a fuse element extending between a first terminal and a second terminal ; an endbell to be coupled to the fuse body, the endbell comprising: a first endbell portion having a first crush rib engaging the first surface of the terminal assembly; and a second endbell portion having a second crush rib engaging the second surface of the terminal assembly, the first endbell portion and the second endbell portion being fastened to one another with the terminal assembly sandwiched therebetween, the first crush rib and the second crush rib forming a seal around the terminal assembly. a fuse body ; a terminal assembly disposed within the fuse body and having first and second opposing surfaces, the terminal assembly comprising a fuse element extending between a first terminal and a second terminal ; an endbell to be coupled to the fuse body, the endbell comprising: a first endbell portion having a first crush rib engaging the first surface of the terminal assembly; and a second endbell portion having a second crush rib engaging the second surface of the terminal assembly, the first endbell portion and the second endbell portion being fastened to one another with the terminal assembly sandwiched therebetween, the first crush rib and the second crush rib forming a seal around the terminal assembly. a first endbell portion having a first crush rib engaging the first surface of the terminal assembly; and a second endbell portion having a second crush rib engaging the second surface of the terminal assembly, the first endbell portion and the second endbell portion being fastened to one another with the terminal assembly sandwiched therebetween, the first crush rib and the second crush rib forming a seal around the terminal assembly.
A method, comprising: receiving an anatomical map of at least a portion of a heart; receiving, for at least a region of the anatomical map, positions and respective electrocardiogram (ECG) signal amplitudes measured at the positions; interpolating the ECG signal amplitudes, to derive a surface representation of the ECG signal amplitudes over the region; and presenting the surface representation of the ECG signal amplitudes overlaid on the anatomical map, wherein the anatomical map presents local activation times (LATs). receiving an anatomical map of at least a portion of a heart; receiving, for at least a region of the anatomical map, positions and respective electrocardiogram (ECG) signal amplitudes measured at the positions; interpolating the ECG signal amplitudes, to derive a surface representation of the ECG signal amplitudes over the region; and presenting the surface representation of the ECG signal amplitudes overlaid on the anatomical map, wherein the anatomical map presents local activation times (LATs).
A print head for three-dimensional printing comprising an extrusion assembly functionally coupled to a drive assembly , and a nozzle assembly , functionally coupled to the extrusion assembly , providing filament transfer, the print head further comprising a cooling assembly disposed between the extrusion assembly and the drive assembly , containing a fluid cooling system, comprising an inlet , an outlet and a system of cooling ducts disposed inside the cooling assembly , configured to distribute the cooling medium and to provide maintenance of the preset temperature of the extrusion module and the drive module , the print head further comprising a cooling chamber made in the extrusion assembly , connected with the cooling ducts of the cooling assembly , surrounding the shaft of the drive assembly , and wherein the extrusion assembly further comprises a rack driven by the drive assembly and a clamp to transport the filament . the print head further comprising a cooling assembly disposed between the extrusion assembly and the drive assembly , containing a fluid cooling system, comprising an inlet , an outlet and a system of cooling ducts disposed inside the cooling assembly , configured to distribute the cooling medium and to provide maintenance of the preset temperature of the extrusion module and the drive module , the print head further comprising a cooling chamber made in the extrusion assembly , connected with the cooling ducts of the cooling assembly , surrounding the shaft of the drive assembly , and wherein the extrusion assembly further comprises a rack driven by the drive assembly and a clamp to transport the filament .
A reaction mixture comprising one or more reactants, a catalyst, an organic solvent, and a surfactant-water mixture, wherein the reaction mixture comprises 0.1 to 50 volume equivalents of the organic solvent and 1 to 50 volume equivalents of the surfactant-water mixture per mass of the reactants or product, respectively, wherein the surfactant is selected from the group consisting of (DL-α-) tocopherol polyethylene glycol succinate (TPGS), polyethylene glycol ester, Tween, phase transfer surfactants (PTS), polyoxyethanyl ubiquinol sebacate (PQS) and functionalized PQS, polyethylene glycol (PEG), octanoic acid, and b-sitosterol methoxyethyleneglycol succinate (Nok).
Coaxial transmission , comprising - a toothing axially aligned with respect to an axis of rotation of the coaxial transmission , - a tooth carrier having axially aligned guides , - tooth pins , each comprising a body mounted in an axially movable manner in a guide of the tooth carrier and a head region , characterised in that the head region is designed to be widened relative to the body , and in that the head region comprises at least two teeth for engagement with the toothing . - a toothing axially aligned with respect to an axis of rotation of the coaxial transmission , - a tooth carrier having axially aligned guides , - tooth pins , each comprising a body mounted in an axially movable manner in a guide of the tooth carrier and a head region , characterised in that the head region is designed to be widened relative to the body , and in that the head region comprises at least two teeth for engagement with the toothing .
A therapeutically effective amount of an agent capable of inducing damage to a tissue of interest, wherein said damage results in proliferation of resident stem cells in said tissue, and wherein when said tissue of interest is a pulmonary tissue said agent capable of inducing damage to the tissue is not naphthalene; and an agent which ablates said resident stem cells in said tissue, wherein said agent which ablates said resident stem cells in said tissue is used subsequently to said agent capable of inducing damage to said tissue, for use in conditioning a human subject in need of transplantation of progenitor cells in suspension from an adult tissue of interest.
A bias network for an amplifier , the bias network comprising: a bias circuit having an output and being configured to generate a bias signal; and a coupling circuit coupled between the output of the bias circuit and an input of the amplifier to enable provision of a modified bias signal to the input of the amplifier , wherein the coupling circuit includes an N-type metal-oxide semiconductor, NMOS, transistor and a resistor , the resistor is coupled between a source terminal and a drain terminal of the NMOS transistor , a first source or drain, S/D, terminal of a pair of the source terminal and the drain terminal of the NMOS transistor is coupled to the input of the amplifier and a second S/D terminal of the pair is coupled to the output of the bias circuit , and the coupling circuit is configured so that an impedance of the coupling circuit is dependent on a power level of an input signal to be amplified by the amplifier such that during operation, a current between the first S/D terminal and the second S/D terminal of the NMOS transistor is dependent on a power level of an input signal to be amplified by the amplifier , wherein the impedance of the coupling circuit gradually decreases as the power of the input signal increases for a range of values of the power level of the input signal, wherein the coupling circuit further includes a power detector configured to determine a power of the input signal to be amplified by the amplifier , and wherein an output of the power detector is coupled to a gate terminal of the NMOS transistor . a bias circuit having an output and being configured to generate a bias signal; and a coupling circuit coupled between the output of the bias circuit and an input of the amplifier to enable provision of a modified bias signal to the input of the amplifier , wherein the coupling circuit includes an N-type metal-oxide semiconductor, NMOS, transistor and a resistor , the resistor is coupled between a source terminal and a drain terminal of the NMOS transistor , a first source or drain, S/D, terminal of a pair of the source terminal and the drain terminal of the NMOS transistor is coupled to the input of the amplifier and a second S/D terminal of the pair is coupled to the output of the bias circuit , and the coupling circuit is configured so that an impedance of the coupling circuit is dependent on a power level of an input signal to be amplified by the amplifier such that during operation, a current between the first S/D terminal and the second S/D terminal of the NMOS transistor is dependent on a power level of an input signal to be amplified by the amplifier , wherein the impedance of the coupling circuit gradually decreases as the power of the input signal increases for a range of values of the power level of the input signal, wherein the coupling circuit further includes a power detector configured to determine a power of the input signal to be amplified by the amplifier , and wherein an output of the power detector is coupled to a gate terminal of the NMOS transistor .
A multiple view-zone static multiview display comprising: a light guide configured to guide light; a light source configured to provide within the light guide a collimated guided light beam; and a plurality of diffraction gratings distributed across the light guide, a first set of diffraction gratings of the diffraction grating plurality being configured to scatter out a portion of the collimated guided light beam into a first view zone as directional light beams representing a first multiview image and a second set of diffraction gratings of the diffraction grating plurality being configured to scatter out another portion of the collimated guided light beam into a second view zone as directional light beams representing a second multiview image ; and characterised in that the first view zone is configured to have a first angular range and the second view zone is configured to have a second angular range, the first view zone and second view zone being mutually exclusive angular ranges. a light guide configured to guide light; a light source configured to provide within the light guide a collimated guided light beam; and a plurality of diffraction gratings distributed across the light guide, a first set of diffraction gratings of the diffraction grating plurality being configured to scatter out a portion of the collimated guided light beam into a first view zone as directional light beams representing a first multiview image and a second set of diffraction gratings of the diffraction grating plurality being configured to scatter out another portion of the collimated guided light beam into a second view zone as directional light beams representing a second multiview image ; and characterised in that the first view zone is configured to have a first angular range and the second view zone is configured to have a second angular range, the first view zone and second view zone being mutually exclusive angular ranges.
Motor vehicle structure , comprising a roof cross-member , said cross-member comprising two ends fixed to arch beams of said roof , the cross-member having at each of the two ends a section with a non-rectilinear horizontal profile comprising two opposite lateral portions and a central portion cantilevered between said lateral portions , said central portion being capable of bending towards the corresponding roof arc beam in the event of a corresponding force exerted on the cross-member , said structure being characterized in that each of the two roof arc beams has an opposite indentation facing the central portion of the corresponding end section of the crosspiece , allowing said portion to bend.
A process for calibrating the loading force of a breaker element of a bale opener on a bale group comprising the following process steps: (a) Predefine upper and lower loading forces and setting a force sensor at no load; (b) Lowering the breaker element onto the bale group until achieving a loading force equal to at least twice the upper loading force at which the breaker element receives the command to lift during the breaking operation wherein the loading force is measured with the force sensor ; (c) Relieving the load on the breaker element ; (d) Setting the loading force measured with the force sensor at a negative value which includes signal distortion influences and (e) Lowering the breaker element until the loading force reaches at least the level of the upper loading force. (a) Predefine upper and lower loading forces and setting a force sensor at no load; (b) Lowering the breaker element onto the bale group until achieving a loading force equal to at least twice the upper loading force at which the breaker element receives the command to lift during the breaking operation wherein the loading force is measured with the force sensor ; (c) Relieving the load on the breaker element ; (d) Setting the loading force measured with the force sensor at a negative value which includes signal distortion influences and (e) Lowering the breaker element until the loading force reaches at least the level of the upper loading force.