mhurhangee/ep-ind-claims huggingface dataset:
A lathe comprising: a spindle rotatable on a spindle axis, a spindle support which supports the spindle through a bearing on an outer side of the spindle with respect to the spindle axis, a collet disposed on a front end of the spindle, an inner ring holder provided on the spindle to hold a front of an inner ring of the bearing, an outer ring holder provided on the spindle support to hold a front of an outer ring of the bearing on an outer side of the inner ring holder with respect to the spindle axis, a cap screwed into the spindle in front of the inner ring holder and disposed on an outer side of the collet with respect to the spindle axis, a cover detachably provided on the spindle support side, the cover having an inner circumferential surface facing an outer circumferential surface of the cap, and a first air purging unit provided between the inner circumferential surface of the cover and the outer circumferential surface of the cap, the first air purging unit being supplied with purge air. a spindle rotatable on a spindle axis, a spindle support which supports the spindle through a bearing on an outer side of the spindle with respect to the spindle axis, a collet disposed on a front end of the spindle, an inner ring holder provided on the spindle to hold a front of an inner ring of the bearing, an outer ring holder provided on the spindle support to hold a front of an outer ring of the bearing on an outer side of the inner ring holder with respect to the spindle axis, a cap screwed into the spindle in front of the inner ring holder and disposed on an outer side of the collet with respect to the spindle axis, a cover detachably provided on the spindle support side, the cover having an inner circumferential surface facing an outer circumferential surface of the cap, and a first air purging unit provided between the inner circumferential surface of the cover and the outer circumferential surface of the cap, the first air purging unit being supplied with purge air.
A high-strength hot-rolled steel sheet for an electric resistance welded steel pipe, having a composition containing, in mass%, C: 0.10 to 0.18%, Si: 0.1 to 0.5%, Mn: 0.8 to 2.0%, P: 0.001 to 0.020%, S: 0.005% or less, Al: 0.001 to 0.1%, Cr: 0.4 to 1.0%, Cu: 0.1 to 0.5%, Ni: 0.01 to 0.4%, Nb: 0.01 to 0.07%, N: 0.008% or less, and further Mo: 0.5% or less and/or V: 0.1% or less so that Moeq defined by equation below is 1.4 to 2.2 and so that Mo and V are contained to satisfy expression below, optionally one or more selected from Ti: 0.03% or less, Zr: 0.04% or less, Ta: 0.05% or less, B: 0.0010% or less, Ca: 0.005% or less, and REM: 0.005% or less, and a balance of Fe and incidental impurities; and having a microstructure containing, in volume fraction, 80% or more of a bainite phase as a primary phase and 4 to 20% of a martensite phase and a retained austenite phase in total as a secondary phase, the bainite phase having an average grain size of 1 to 10 μm, wherein equation and expression are: Moeq = Mo + 0.36 Cr + 0.77 Mn + 0.07 Ni 0.05 ≤ Mo + V ≤ 0.5 where each element symbol in equation and expression represents the content of each element in mass%, and an element, if not contained, is set to zero.
Rotary handle arrangement comprising - a first grip element, and - a second grip element, wherein the first grip element is arranged to be rotatable with respect to a grip element axis relative to the second grip element, wherein the first grip element can be rotated with respect to the second grip element at least between a basic position and a rotated position in which mutual abutment prevents further rotation, wherein a coupling device is provided, which comprises at least one spring element such that the at least one spring element is deformed against a spring force by rotating the first grip element with respect to the second grip element out of the basic position in the direction towards the rotated position, and wherein the basic position can be unambiguously distinguished from the rotated position by at least one marking (7a-7d) on the rotary handle arrangement and/or by the construction of the rotary handle arrangement, characterized in that a coupling bolt is formed on the coupling device of one of the grip elements (1, 2), which coupling bolt can be displaced relative to this grip element (1, 2) against the spring element, and a guiding element is formed on the other one of the grip elements (1, 2), wherein when rotating the first grip element with respect to the second grip element, the guiding element is in contact with the coupling bolt at least over part of the relative angle of rotation φ between the basic position and the rotated position and displaces it relative to the grip element (1, 2) on which it is formed towards the spring element or away from the spring element, and that the rotary handle arrangement comprises a shaft element, wherein the shaft element is rigidly connected to the second grip element. - a first grip element, and - a second grip element,
A process to stabilize the perhydrolysis activity of an enzyme when present in a formulation comprised of said enzyme and a carboxylic acid ester, the process comprising: (a) providing an aqueous formulation comprising: (i) at least one enzyme structurally classified as a CE-7 enzyme and having perhydrolysis activity and a signature motif comprising: (i) an RGQ motif at amino acid residues 118-120; (ii) a GXSQG motif at amino acid residues 179-183; and (iii) an HE motif at amino acid residues 298-299 when aligned to reference sequence SEQ ID NO: 1 using a CLUSTAL W method of alignment; (ii) at least one oligosaccharide excipient which has a number average molecular weight of at least about 1250 and a weight average molecular weight of at least about 9000; and (iii) optionally at least one surfactant; (b) spray-drying the aqueous formulation of (a) to produce an enzyme powder comprising the at least one enzyme of (i) and the at least one oligosaccharide excipient of (ii); and (c) combining the spray dried enzyme powder of (b) with a carboxylic acid ester to produce said formulation, which comprises less than 2000 ppm of water, and which substantially retains the perhydrolysis activity of the at least one enzyme in said formulation. (a) providing an aqueous formulation comprising: (i) at least one enzyme structurally classified as a CE-7 enzyme and having perhydrolysis activity and a signature motif comprising: (i) an RGQ motif at amino acid residues 118-120; (ii) a GXSQG motif at amino acid residues 179-183; and (iii) an HE motif at amino acid residues 298-299 when aligned to reference sequence SEQ ID NO: 1 using a CLUSTAL W method of alignment; (ii) at least one oligosaccharide excipient which has a number average molecular weight of at least about 1250 and a weight average molecular weight of at least about 9000; and (iii) optionally at least one surfactant; (i) at least one enzyme structurally classified as a CE-7 enzyme and having perhydrolysis activity and a signature motif comprising: (i) an RGQ motif at amino acid residues 118-120; (ii) a GXSQG motif at amino acid residues 179-183; and (iii) an HE motif at amino acid residues 298-299 when aligned to reference sequence SEQ ID NO: 1 using a CLUSTAL W method of alignment; (i) an RGQ motif at amino acid residues 118-120; (ii) a GXSQG motif at amino acid residues 179-183; and (iii) an HE motif at amino acid residues 298-299 when aligned to reference sequence SEQ ID NO: 1 using a CLUSTAL W method of alignment; (ii) at least one oligosaccharide excipient which has a number average molecular weight of at least about 1250 and a weight average molecular weight of at least about 9000; and (iii) optionally at least one surfactant; (b) spray-drying the aqueous formulation of (a) to produce an enzyme powder comprising the at least one enzyme of (i) and the at least one oligosaccharide excipient of (ii); and (c) combining the spray dried enzyme powder of (b) with a carboxylic acid ester to produce said formulation, which comprises less than 2000 ppm of water, and which substantially retains the perhydrolysis activity of the at least one enzyme in said formulation.
A vehicle front body structure comprising an upper longitudinal beam (10, 12) and a upper fender rail (14, 16) for supporting a fender of the vehicle, said upper fender rail (14, 16) extending in a longitudinal direction substantially parallel to the upper longitudinal beam (10, 12) and having a front end and a rear end spaced apart along the longitudinal direction, the rear end being attached to a front pillar of the vehicle and the upper fender rail (14, 16) extending towards the front of the vehicle from the rear end, characterized in that - the resistance to plastic deformation of the upper fender rail (14, 16) increases from the front end of the upper fender rail to the rear end of the upper fender rail, said upper fender rail comprising a front section and a rear section, the resistance to plastic deformation of the rear section being greater than the resistance to plastic deformation of the front section, and in that the yield strength (R er) of the material of the rear section is greater than the yield strength (R ef) of the material of the front section and/or the rear section has a greater wall thickness (t) than the wall thickness (t) of the front section. - the resistance to plastic deformation of the upper fender rail (14, 16) increases from the front end of the upper fender rail to the rear end of the upper fender rail, said upper fender rail comprising a front section and a rear section, the resistance to plastic deformation of the rear section being greater than the resistance to plastic deformation of the front section, and
An electronic device, comprising: communications circuitry over which wireless signals are transmitted and received; and control circuitry configured to determine location of the electronic device using a combination of location signals received from a first set of reference radios (12, 16), the first set of reference radios including at least one secondary reference radio, each secondary reference radio established as a secondary reference radio by registering a corresponding location with a server and qualifying each secondary reference radio with the server as an authorized source of location signals, the corresponding location of the secondary reference radio determined as a function of location signals received by the secondary reference radio from a second set of reference radios (12, 16), each radio in the second set of reference radios being either a primary reference radio or one of the plurality of secondary reference radios, and being previously qualified as reference radios in a database of primary reference radios and secondary reference radios, each primary reference radio being a fixed-location radio device; wherein the control circuitry is configured to determine the location of the electronic device using triangulation of location signals received from any combination of primary and secondary reference radios of the first set of reference radios. communications circuitry over which wireless signals are transmitted and received; and control circuitry configured to determine location of the electronic device using a combination of location signals received from a first set of reference radios (12, 16), the first set of reference radios including at least one secondary reference radio, each secondary reference radio established as a secondary reference radio by registering a corresponding location with a server and qualifying each secondary reference radio with the server as an authorized source of location signals, the corresponding location of the secondary reference radio determined as a function of location signals received by the secondary reference radio from a second set of reference radios (12, 16), each radio in the second set of reference radios being either a primary reference radio or one of the plurality of secondary reference radios, and being previously qualified as reference radios in a database of primary reference radios and secondary reference radios, each primary reference radio being a fixed-location radio device; wherein the control circuitry is configured to determine the location of the electronic device using triangulation of location signals received from any combination of primary and secondary reference radios of the first set of reference radios.
A method of co-bonding a first thermoset composite and a second TSC to define a cured composite part, the method comprising: partially curing the first TSC to a target state of cure by heating the first TSC to define a first partially cured TSC, wherein the target SOC is established based, at least in part, on: (i) a maximum temperature, during the partially curing, of the first TSC; and (ii) an elapsed time, during the partially curing, that an actual temperature of the first TSC is greater than a threshold temperature; combining the first partially cured TSC with the second TSC to define a partially cured TSC assembly that includes an interface region between the first partially cured TSC and the second TSC; and heating the partially cured TSC assembly to: (i) bond the first partially cured TSC to the second TSC within the interface region; (ii) cure the partially cured TSC assembly; and (iii) produce the cured composite part. partially curing the first TSC to a target state of cure by heating the first TSC to define a first partially cured TSC, wherein the target SOC is established based, at least in part, on: (i) a maximum temperature, during the partially curing, of the first TSC; and (ii) an elapsed time, during the partially curing, that an actual temperature of the first TSC is greater than a threshold temperature; (i) a maximum temperature, during the partially curing, of the first TSC; and (ii) an elapsed time, during the partially curing, that an actual temperature of the first TSC is greater than a threshold temperature; combining the first partially cured TSC with the second TSC to define a partially cured TSC assembly that includes an interface region between the first partially cured TSC and the second TSC; and heating the partially cured TSC assembly to: (i) bond the first partially cured TSC to the second TSC within the interface region; (ii) cure the partially cured TSC assembly; and (iii) produce the cured composite part. (i) bond the first partially cured TSC to the second TSC within the interface region; (ii) cure the partially cured TSC assembly; and (iii) produce the cured composite part.
A planetary gear transmission, comprising: a planetary gear train which comprises a sun gear rotatable around a central axis, a fixed annular gear disposed coaxially around the sun gear, at least one planet gear meshing between the sun gear and the annular gear, and a planet carrier which carries the at least one planet gear and is rotatable round the central axis of the sun gear; a synchronizer configured for coupling the planetary gear train with a rotary output shaft of an electric motor as a prime mover, the synchronizer being configured to be driven into a first coupling state in which it couples the sun gear with the output shaft of the electric motor, and a second coupling state in which it couples the planet carrier with the output shaft of the prime mover; and an actuator configured to selectively drive the synchronizer into one of its first and second coupling states, characterized in that the actuator comprises an electric, electromagnetic, pneumatic or hydraulic type linear or rotary actuator, wherein the output shaft of the electric motor is coaxial with the sun gear and extends through a gear hub (8a1) of the sun gear. a planetary gear train which comprises a sun gear rotatable around a central axis, a fixed annular gear disposed coaxially around the sun gear, at least one planet gear meshing between the sun gear and the annular gear, and a planet carrier which carries the at least one planet gear and is rotatable round the central axis of the sun gear; a synchronizer configured for coupling the planetary gear train with a rotary output shaft of an electric motor as a prime mover, the synchronizer being configured to be driven into a first coupling state in which it couples the sun gear with the output shaft of the electric motor, and a second coupling state in which it couples the planet carrier with the output shaft of the prime mover; and an actuator configured to selectively drive the synchronizer into one of its first and second coupling states, characterized in that the actuator comprises an electric, electromagnetic, pneumatic or hydraulic type linear or rotary actuator, wherein the output shaft of the electric motor is coaxial with the sun gear and extends through a gear hub (8a1) of the sun gear.
An apparatus comprising: a broadband light source configured to illuminate at least one point of an object with broadband light; an optical system comprising a linear polarizer for illuminating at least one point of the object with light from the broadband light source via the polarizer and for collecting light reflected from the object; a biaxial birefringent crystal for intercepting a beam of light reflected from the object via the optical system and for propagating said beam along an optical axis of the crystal and transforming the beam of reflected light to a plurality of coaxial rings of light, said rings of light corresponding to light of respective wavelengths, and each point of each of said rings of light having a different polarization plane; a detector array for detecting respective points along each of said rings; and a processing unit coupled to the detector array configured to determine, from signals from the detector array, the ellipsometric optical properties of the object. a broadband light source configured to illuminate at least one point of an object with broadband light; an optical system comprising a linear polarizer for illuminating at least one point of the object with light from the broadband light source via the polarizer and for collecting light reflected from the object; a biaxial birefringent crystal for intercepting a beam of light reflected from the object via the optical system and for propagating said beam along an optical axis of the crystal and transforming the beam of reflected light to a plurality of coaxial rings of light, said rings of light corresponding to light of respective wavelengths, and each point of each of said rings of light having a different polarization plane; a detector array for detecting respective points along each of said rings; and a processing unit coupled to the detector array configured to determine, from signals from the detector array, the ellipsometric optical properties of the object.
Anti-flip lock cylinder, comprising a cylinder housing having a cylinder core rotatably mounted wherein, - wherein radially extending bores which merge into each other in the bore base are provided in the cylinder core, one of these bores receiving a sprung locking element and the other bore receiving a sprung flip pin, - wherein a locking geometry is formed in the inner circumference of the cylinder housing, the geometry allowing at a defined circumferential position of the inner circumference of the cylinder housing a radial movement of the locking element outwards beyond the cylinder housing/cylinder core separating plane into a recess in the cylinder housing, wherein a flip geometry running surface on the inner circumference of the cylinder housing is associated with the flip pin, having a radially inwardly directed cam, the cam being arranged on the inner circumference relative to the defined position of the recess of the locking geometry such that the flip pin is movable by the cam radially inwards below the cylinder housing/cylinder core separating plane when the locking element is displaced outwards beyond the separating plane. - wherein radially extending bores which merge into each other in the bore base are provided in the cylinder core, one of these bores receiving a sprung locking element and the other bore receiving a sprung flip pin, - wherein a locking geometry is formed in the inner circumference of the cylinder housing, the geometry allowing at a defined circumferential position of the inner circumference of the cylinder housing a radial movement of the locking element outwards beyond the cylinder housing/cylinder core separating plane into a recess in the cylinder housing,
A green ceramic body comprising: a ceramic precursor powder effective to form a ceramic upon heating; and a binder, wherein said binder comprises a blend of water soluble thermal gelling cellulose ether and nanocrystalline cellulose.
A mobile computer workstation comprising: a base assembly including a plurality of wheels; an adjustable column assembly mounted to the base assembly and adapted to support a tray assembly and a computer monitor; a computing device stored within the workstation; a camera configured to communicate a video signal, the camera being mounted on the workstation such that a field of view of the camera is directed rearward from the computer monitor; wherein the computing device is operatively coupled to the camera and the computer monitor; characterized in that the computing device operable to: determine whether the workstation is moving, if movement is determined, comparing a sensed motion of the workstation to a predetermined motion threshold; and only if the sensed motion exceeds the motion threshold: activate the camera; receive the video signal from the camera; and display the video signal on the computer monitor. a base assembly including a plurality of wheels; an adjustable column assembly mounted to the base assembly and adapted to support a tray assembly and a computer monitor; a computing device stored within the workstation; a camera configured to communicate a video signal, the camera being mounted on the workstation such that a field of view of the camera is directed rearward from the computer monitor; wherein the computing device is operatively coupled to the camera and the computer monitor; determine whether the workstation is moving, if movement is determined, comparing a sensed motion of the workstation to a predetermined motion threshold; and only if the sensed motion exceeds the motion threshold: activate the camera; receive the video signal from the camera; and display the video signal on the computer monitor. activate the camera; receive the video signal from the camera; and display the video signal on the computer monitor.