mhurhangee/ep-ind-claims huggingface dataset:
Secondary panel for a modular structure for supporting slab formwork or the like, extending longitudinally between two bearing endpieces (2a, 2b) intended respectively to come to bear against a primary girder (22, 23) and developing widthwise in a transverse direction (II-II), in which: - the bearing endpieces (2a, 2b) are connected to one another by a one-piece profile developing in the longitudinal direction (I-I), - the profile has a substantially inverted U-shaped cross section defining a solid upper face and two secondary-panel lateral faces (5, 6), characterized in that: - the bearing endpieces (2a, 2b) develop transversely between a first and a second end, - each of the bearing endpieces (2a, 2b) comprises, at least at one of its first and second ends, a lateral lug (11, 12) projecting in the transverse direction (II-II) and away from the profile. - the bearing endpieces (2a, 2b) are connected to one another by a one-piece profile developing in the longitudinal direction (I-I), - the profile has a substantially inverted U-shaped cross section defining a solid upper face and two secondary-panel lateral faces (5, 6), characterized in that: - the bearing endpieces (2a, 2b) develop transversely between a first and a second end, - each of the bearing endpieces (2a, 2b) comprises, at least at one of its first and second ends, a lateral lug (11, 12) projecting in the transverse direction (II-II) and away from the profile.
A toner comprising: toner particles each containing a binder resin and a crystalline wax; wherein the toner has, in a DSC curve obtained by measuring the toner with a differential scanning calorimeter as described in the description, a glass transition temperature measured in a first scan of 50.0 to 70.0°C and a temperature difference (Tg1-Tg2) of 3.0 to 20.0°C between the glass transition temperature measured in the first scan and a glass transition temperature measured in a second scan, and wherein the toner comprises a resin component of a molecular weight of 2,000 to 5,000 in an amount of 1.0 to 40.0% by weight based on the total weight of the toner. toner particles each containing a binder resin and a crystalline wax; wherein the toner has, in a DSC curve obtained by measuring the toner with a differential scanning calorimeter as described in the description, a glass transition temperature measured in a first scan of 50.0 to 70.0°C and a temperature difference (Tg1-Tg2) of 3.0 to 20.0°C between the glass transition temperature measured in the first scan and a glass transition temperature measured in a second scan, and wherein the toner comprises a resin component of a molecular weight of 2,000 to 5,000 in an amount of 1.0 to 40.0% by weight based on the total weight of the toner.
A former comprising: a guide pipe that guides an optical fiber bundle configured from a plurality of optical fibers; a tape forming section that forms a press-wrapping tape from a strip shape into a helical shape, while guiding the press-wrapping tape along a feed direction, the tape forming section including a curved section that gradually curves the strip shaped press-wrapping tape while guiding the press-wrapping tape along the feed direction, characterized in that said tape forming section further includes a helical section that is a helical tube shaped location further to a downstream side than a position where two edges of the curved section intersect with each other, the helical section causing two end portions of the press-wrapping tape that has been curved with the curved section to overlap and forming the press-wrapping tape into a helical shape, while guiding the press-wrapping tape along the feed direction, and gradually narrowing an external diameter of the helically shaped press-wrapping tape, said guide pipe having an outlet disposed at a leading end of the guide pipe and further to the downstream side than the position where the two edges of the curved section intersect with each other, said leading end being obliquely cut to form an elliptically shaped opening defining said outlet, said opening having a leading end portion downstream of an upstream end of the opening. a guide pipe that guides an optical fiber bundle configured from a plurality of optical fibers; a tape forming section that forms a press-wrapping tape from a strip shape into a helical shape, while guiding the press-wrapping tape along a feed direction, the tape forming section including a curved section that gradually curves the strip shaped press-wrapping tape while guiding the press-wrapping tape along the feed direction, characterized in that said tape forming section further includes a helical section that is a helical tube shaped location further to a downstream side than a position where two edges of the curved section intersect with each other, the helical section causing two end portions of the press-wrapping tape that has been curved with the curved section to overlap and forming the press-wrapping tape into a helical shape, while guiding the press-wrapping tape along the feed direction, and gradually narrowing an external diameter of the helically shaped press-wrapping tape, said guide pipe having an outlet disposed at a leading end of the guide pipe and further to the downstream side than the position where the two edges of the curved section intersect with each other, said leading end being obliquely cut to form an elliptically shaped opening defining said outlet, said opening having a leading end portion downstream of an upstream end of the opening.
A method of ionizing a first stream of liquid by an electrospray ion source having a nebulizer, wherein the first stream of liquid may comprise an analyte, the method comprising: a) providing the first stream of liquid to the nebulizer; b) adding a second stream of liquid to the first stream of liquid in the nebulizer, at an input end of the nebulizer, or upstream of the nebulizer; and wherein the second stream of liquid comprises a co-solvent and an enhancement solvent, the co-solvent having a boiling point between 4°C and 110 °C, and the enhancement solvent having a boiling point between 150 °C and 300 °C; and c) nebulizing and ionizing the resulting liquid, characterized in that the enhancement solvent is selected from the group consisting of DMSO, 2-(2-methoxyethoxy)ethanol and propylene glycol, and if the enhancement solvent is DMSO, then the electrospray ion source is run in negative ion mode. a) providing the first stream of liquid to the nebulizer; b) adding a second stream of liquid to the first stream of liquid in the nebulizer, at an input end of the nebulizer, or upstream of the nebulizer; and wherein the second stream of liquid comprises a co-solvent and an enhancement solvent, the co-solvent having a boiling point between 4°C and 110 °C, and the enhancement solvent having a boiling point between 150 °C and 300 °C; and c) nebulizing and ionizing the resulting liquid,
Method for detection of a contactless receiver in the field of the antenna of a contactless reader, comprising the steps for: - excitation of the antenna of the reader by a potential difference comprising: - a ramp (Fm) between first and second values of potential differences; - following the ramp, a plateau (Pl) at the second value of potential difference; - measurement of the response of the antenna during the said plateau; - comparison of the measured response with reference responses corresponding to various types of receivers present in the field of the antenna of the reader; - identification of the type of receiver present in the field of the antenna of the reader depending on this latter comparison; - determination of the presence of a receiver in the field of the antenna of the contactless reader depending on the result of the comparison. - excitation of the antenna of the reader by a potential difference comprising: - a ramp (Fm) between first and second values of potential differences; - following the ramp, a plateau (Pl) at the second value of potential difference; - a ramp (Fm) between first and second values of potential differences; - following the ramp, a plateau (Pl) at the second value of potential difference; - measurement of the response of the antenna during the said plateau; - comparison of the measured response with reference responses corresponding to various types of receivers present in the field of the antenna of the reader; - identification of the type of receiver present in the field of the antenna of the reader depending on this latter comparison; - determination of the presence of a receiver in the field of the antenna of the contactless reader depending on the result of the comparison.
A process for manufacturing a steel sheet for a steel belt, comprising: subjecting a slab of steel having a chemical composition consisting of more than 0.60% and 0.80% or less of C, from 0.10 to 1.00% of Si, from 0.10 to 1.00% of Mn, from 0.002 to 0.020% of P, from 0.001 to 0.010% of S, from 0.10 to 1.00% of Cr, from 0 to 0.50% of V, from 0 to 0.10% of Ti, from 0 to 0.10% of Nb, and from 0 to 0.010% of B, all in terms of percentage by mass, with the balance of Fe and unavoidable impurities, to hot rolling under a condition of a finish hot rolling temperature of from 800 to 900°C, an average cooling rate from the finish rolling to coiling of 25°C per second or more, and a coiling temperature of from 450 to 650°C; then subjecting the hot-rolled slab to cold rolling of a total rolling reduction ratio of 40% or more and a reduction ratio per one pass of less than 12% under a condition of a material temperature of 110°C or less, without performing a heat treatment between the hot rolling and the cold rolling; and then subjecting the cold-rolled slab to an aging treatment of maintaining a temperature of from 200 to 500°C for a period of from 0.5 to 30 hours, wherein steel sheet has a volume fraction of a pearlite structure in a metallic structure of 90% or more, with the balance being pro-eutectoid ferrite, a tensile strength in the rolling direction of 1,300 MPa or more, thickness in a sheet thickness direction of pro-eutectoid ferrite phase of 5μm or less, an elongation of 5% or more, and a crack propagation resistance according to the following item A of 600 MPa or more: A. a test piece which has a hole having a diameter of 4.0 mm at the center of the test piece and two notches each having a width of approximately 2.5 mm formed on both sides in the width direction of the hole is subjected to a tensile test in the longitudinal direction thereof, which agrees with the rolling direction, at room temperature and a tension speed of 0.3 mm/min, so as to provide a load-elongation curve, from which a maximum load is obtained, and a value obtained by dividing the maximum load by an initial cross sectional area 45 mm × thickness is designated as the crack propagation resistance, unit: MPa. A. a test piece which has a hole having a diameter of 4.0 mm at the center of the test piece and two notches each having a width of approximately 2.5 mm formed on both sides in the width direction of the hole is subjected to a tensile test in the longitudinal direction thereof, which agrees with the rolling direction, at room temperature and a tension speed of 0.3 mm/min, so as to provide a load-elongation curve, from which a maximum load is obtained, and a value obtained by dividing the maximum load by an initial cross sectional area 45 mm × thickness is designated as the crack propagation resistance, unit: MPa.
A waterproof box comprising: a main body (14, 50) having an interior wall and a peripheral wall (17, 54) and non-waterproof receiving components inside of the peripheral wall (17, 54); a cover (15, 51) having a cover peripheral wall (23, 55), the cover (15, 51) covering an opening formed between edges of the peripheral wall (17, 54) of the main body (14, 50) and edges of the cover peripheral wall (23, 55); a main body side waterproof structure (20, 56) arranged around a top end of the peripheral wall (17, 54) of the main body (14, 50); and a cover side waterproof structure (26, 53) arranged on a bottom end of the cover peripheral wall (23, 55), wherein the main body side waterproof structure (20, 56) is overlapped with the cover side waterproof structure (26, 53) so as to waterproof, causing a main body side matching surface (28, 56) and a cover side matching surface (29, 57) to oppose each other, wherein the main body side matching surface (28, 56) and the cover side matching surface (29,57) are formed as at least a tapered surface which are abutted and fit when the cover (15, 51) is moved in a direction removing the main body, and wherein a minute path (27, 58) is formed between the main body side waterproof structure (20, 56) and the cover side waterproof structure (26, 53), wherein the cover side waterproof structure (26, 53) has a groove which is arranged at the outlet of the minute path (27, 58), and wherein the groove is formed so that the bottom side of the groove is opened and the upper side thereof is a dead end. a main body (14, 50) having an interior wall and a peripheral wall (17, 54) and non-waterproof receiving components inside of the peripheral wall (17, 54); a cover (15, 51) having a cover peripheral wall (23, 55), the cover (15, 51) covering an opening formed between edges of the peripheral wall (17, 54) of the main body (14, 50) and edges of the cover peripheral wall (23, 55); a main body side waterproof structure (20, 56) arranged around a top end of the peripheral wall (17, 54) of the main body (14, 50); and a cover side waterproof structure (26, 53) arranged on a bottom end of the cover peripheral wall (23, 55), wherein the main body side waterproof structure (20, 56) is overlapped with the cover side waterproof structure (26, 53) so as to waterproof, causing a main body side matching surface (28, 56) and a cover side matching surface (29, 57) to oppose each other, wherein the main body side matching surface (28, 56) and the cover side matching surface (29,57) are formed as at least a tapered surface which are abutted and fit when the cover (15, 51) is moved in a direction removing the main body, and wherein a minute path (27, 58) is formed between the main body side waterproof structure (20, 56) and the cover side waterproof structure (26, 53), wherein the cover side waterproof structure (26, 53) has a groove which is arranged at the outlet of the minute path (27, 58), and wherein the groove is formed so that the bottom side of the groove is opened and the upper side thereof is a dead end.
A method for manufacturing a dental prosthesis, for filling a zone of a first jaw, the first jaw being an identical reproduction of at least one part of a toothless jaw of an individual, the zone being able to receive at least one tooth, the first jaw integrating a projecting element, the method comprising: - a first step of depositing a first portion of a belonging to the polycaprolactone family onto the zone of the first jaw, such that the first portion deposited is able to be secured to the projecting element, said material being able to maintain its shape after deposition; - a second step of depositing a second portion of said material onto the first portion; - a step of attaching the tooth to the second portion deposited. - a first step of depositing a first portion of a belonging to the polycaprolactone family onto the zone of the first jaw, such that the first portion deposited is able to be secured to the projecting element, said material being able to maintain its shape after deposition; - a second step of depositing a second portion of said material onto the first portion; - a step of attaching the tooth to the second portion deposited.
A vertebral rotation tool comprising: a head holder comprising: a handle portion having a generally tubular shape, a distal end and a proximal end; an inner sheath having a tubular proximal end and a distal end having two U-shaped cutouts, two arc-shaped head clamp portions adapted to receive the head of a pedicle screw; an outer sheath having a distal end and a proximal ring section and a longitudinal axis defined therebetween, the proximal ring section including a locking mechanism (31, 33, 35) that permits the outer sheath to move between and to reside in locked and unlocked positions, wherein the locking mechanism (31, 33, 35) is operable to be depressed substantially perpendicular to the longitudinal axis in the unlocked state, and wherein the tubular proximal end of the inner sheath can be attached to the handle portion, and the outer sheath can surround the inner sheath; and a spring adapted to surround the inner sheath and be positioned between a distal edge of the handle portion and a proximal edge of the outer sheath. a head holder comprising: a handle portion having a generally tubular shape, a distal end and a proximal end; an inner sheath having a tubular proximal end and a distal end having two U-shaped cutouts, two arc-shaped head clamp portions adapted to receive the head of a pedicle screw; an outer sheath having a distal end and a proximal ring section and a longitudinal axis defined therebetween, the proximal ring section including a locking mechanism (31, 33, 35) that permits the outer sheath to move between and to reside in locked and unlocked positions, wherein the locking mechanism (31, 33, 35) is operable to be depressed substantially perpendicular to the longitudinal axis in the unlocked state, and wherein the tubular proximal end of the inner sheath can be attached to the handle portion, and the outer sheath can surround the inner sheath; and a spring adapted to surround the inner sheath and be positioned between a distal edge of the handle portion and a proximal edge of the outer sheath. a handle portion having a generally tubular shape, a distal end and a proximal end; an inner sheath having a tubular proximal end and a distal end having two U-shaped cutouts, two arc-shaped head clamp portions adapted to receive the head of a pedicle screw; an outer sheath having a distal end and a proximal ring section and a longitudinal axis defined therebetween, the proximal ring section including a locking mechanism (31, 33, 35) that permits the outer sheath to move between and to reside in locked and unlocked positions, wherein the locking mechanism (31, 33, 35) is operable to be depressed substantially perpendicular to the longitudinal axis in the unlocked state, and wherein the tubular proximal end of the inner sheath can be attached to the handle portion, and the outer sheath can surround the inner sheath; and a spring adapted to surround the inner sheath and be positioned between a distal edge of the handle portion and a proximal edge of the outer sheath.
A preparing method of a super absorbent polymer sheet, comprising the steps of: preparing a monomer composition comprising an acrylic acid-based monomer having at least partially neutralized acidic groups, a comonomer containing polyethylene glycol (methyl ether) (meth)acrylate, an internal cross-linking agent containing a polyol, an encapsulated blowing agent, and a polymerization initiator; preparing a hydrogel polymer by thermal polymerization or photopolymerization of the monomer composition; and drying the hydrogel polymer to form a super absorbent polymer sheet. preparing a monomer composition comprising an acrylic acid-based monomer having at least partially neutralized acidic groups, a comonomer containing polyethylene glycol (methyl ether) (meth)acrylate, an internal cross-linking agent containing a polyol, an encapsulated blowing agent, and a polymerization initiator; preparing a hydrogel polymer by thermal polymerization or photopolymerization of the monomer composition; and drying the hydrogel polymer to form a super absorbent polymer sheet.
Use of at least one compound of formula below: R-O- m -H in which: R is a hydrocarbon-based group comprising from 6 to 40, for example from 8 to 24, carbon atoms; A is a hexose or pentose unit; m is a non-zero integer or fraction ranging from 1 to 10; for inhibiting the anionic-surfactant retention phenomena in an oil reservoir. R is a hydrocarbon-based group comprising from 6 to 40, for example from 8 to 24, carbon atoms; A is a hexose or pentose unit; m is a non-zero integer or fraction ranging from 1 to 10; for inhibiting the anionic-surfactant retention phenomena in an oil reservoir.
An illumination system comprising: a first substrate and a second substrate; a scanning mirror assembly provided on the second substrate, the scanning mirror assembly comprising a reflective surface, the reflective surface to be rotationally displaced around at least one rotation axis; a light source provided on the first substrate, the light source being arranged to emit non-collimated light towards the reflective surface, and the light source being located to occlude a region of the light reflected from the reflective surface, wherein the light source is disposed on a first axis extending substantially orthogonally to the reflective surface from a mid-point of the reflective surface when the reflective surface is not subjected to a rotational displacement; a first optical element provided on the first substrate for changing a propagation direction of the reflected light to illuminate at least a portion of the occluded region; and a spacer element for retaining the first and second substrates (17, 19) at a predetermined separation distance from one another, wherein the first and second substrates (17, 19) are stacked. a first substrate and a second substrate; a scanning mirror assembly provided on the second substrate, the scanning mirror assembly comprising a reflective surface, the reflective surface to be rotationally displaced around at least one rotation axis; a light source provided on the first substrate, the light source being arranged to emit non-collimated light towards the reflective surface, and the light source being located to occlude a region of the light reflected from the reflective surface, wherein the light source is disposed on a first axis extending substantially orthogonally to the reflective surface from a mid-point of the reflective surface when the reflective surface is not subjected to a rotational displacement; a first optical element provided on the first substrate for changing a propagation direction of the reflected light to illuminate at least a portion of the occluded region; and a spacer element for retaining the first and second substrates (17, 19) at a predetermined separation distance from one another, wherein the first and second substrates (17, 19) are stacked.