mhurhangee/ep-ind-claims huggingface dataset:
A sheet folding device, comprising: a sheet receiving unit comprising a pair of guide plates (36, 37, 38) configured to restrict opposite sides, in a thickness direction, of one or a plurality of stacked sheets introduced into the sheet receiving unit and a striking portion configured to be struck by leading ends of the sheets as introduced; and a roller group configured to introduce the sheets into the sheet receiving unit, strike the sheets as introduced on the striking portion, to form a bent portion on the sheets, and nip and fold the bent portion as formed and discharge the sheets from the sheet receiving unit; the sheet folding device being characterized by further comprising a curve forming unit (40, 47) configured to form a curved portion on the sheets introduced in the sheet receiving unit, at a position closer to the leading ends of the sheets than a position where the bent portion to be folded by the roller group is formed, the curved portion being curved in a width direction perpendicular to a direction of transfer of the sheets. a sheet receiving unit comprising a pair of guide plates (36, 37, 38) configured to restrict opposite sides, in a thickness direction, of one or a plurality of stacked sheets introduced into the sheet receiving unit and a striking portion configured to be struck by leading ends of the sheets as introduced; and a roller group configured to introduce the sheets into the sheet receiving unit, strike the sheets as introduced on the striking portion, to form a bent portion on the sheets, and nip and fold the bent portion as formed and discharge the sheets from the sheet receiving unit; the sheet folding device being characterized by further comprising a curve forming unit (40, 47) configured to form a curved portion on the sheets introduced in the sheet receiving unit, at a position closer to the leading ends of the sheets than a position where the bent portion to be folded by the roller group is formed, the curved portion being curved in a width direction perpendicular to a direction of transfer of the sheets.
Sander machine for sanding at least one panel, comprising an operative station which is provided with an inlet and an outlet which is placed downstream from said inlet; at least one transporting member for transporting, in use, said at least one panel, according to a transporting speed, from said inlet to said outlet according to a predetermined advancing direction; at least one rotating abrasive member (7, 8, 9) for sanding said at least one panel placed on said at least one transporting member, said at least one rotating abrasive member (7, 8, 9) being rotatable in the same direction as said predetermined advancing direction and placed above said at least one transporting member between said inlet and said outlet; said sander machine being characterized in that it comprises a braking device comprising in turn a rolling member which is able to roll on said at least one panel and arranged facing said outlet and above said at least one transporting member between said at least one rotating abrasive member (7, 8, 9) and said outlet; and a braking member which is connected with said rolling member and able to slow down the rolling of said rolling member such as to brake an advancing movement of said at least one panel. an operative station which is provided with an inlet and an outlet which is placed downstream from said inlet; at least one transporting member for transporting, in use, said at least one panel, according to a transporting speed, from said inlet to said outlet according to a predetermined advancing direction; at least one rotating abrasive member (7, 8, 9) for sanding said at least one panel placed on said at least one transporting member, said at least one rotating abrasive member (7, 8, 9) being rotatable in the same direction as said predetermined advancing direction and placed above said at least one transporting member between said inlet and said outlet; said sander machine being characterized in that it comprises a braking device comprising in turn a rolling member which is able to roll on said at least one panel and arranged facing said outlet and above said at least one transporting member between said at least one rotating abrasive member (7, 8, 9) and said outlet; and a braking member which is connected with said rolling member and able to slow down the rolling of said rolling member such as to brake an advancing movement of said at least one panel.
A prostate specific membrane antigen (PSMA) binding protein, comprising or consisting of an amino acid sequence having at least 90 % identity to an amino acid sequence selected from the group of SEQ ID NOs: 25, 27 to 34, and 54, and comprising an amino acid binding motif KHNTW, or a motif with 80 % identity thereto, at amino acid residues that correspond to positions 62, 63, 64, 65, 66 of SEQ ID NO: 1.
A method of making a thermoplastic elastomer foam, comprising: providing a polymer mixture comprising a thermoplastic elastomer and from 0.1 wt% to 20 wt%, based on total polymer weight, of a semi-crystalline polymer forming polymeric crystalline domains in the thermoplastic elastomer; incorporating a gaseous or supercritical blowing agent into the polymer mixture under pressure; and releasing the pressure and foaming the polymer mixture to form the thermoplastic elastomer foam, wherein the polymer mixture is formed by combining a molten thermoplastic elastomer and from 0.1 wt% to 20 wt%, based on total polymer weight, of a molten semi-crystalline polymer, then cooling the combined polymers to below a temperature at which the semi-crystalline polymer forms polymeric crystalline domains. providing a polymer mixture comprising a thermoplastic elastomer and from 0.1 wt% to 20 wt%, based on total polymer weight, of a semi-crystalline polymer forming polymeric crystalline domains in the thermoplastic elastomer; incorporating a gaseous or supercritical blowing agent into the polymer mixture under pressure; and releasing the pressure and foaming the polymer mixture to form the thermoplastic elastomer foam, wherein the polymer mixture is formed by combining a molten thermoplastic elastomer and from 0.1 wt% to 20 wt%, based on total polymer weight, of a molten semi-crystalline polymer, then cooling the combined polymers to below a temperature at which the semi-crystalline polymer forms polymeric crystalline domains.
A method for enhancing recovery of oil from an oil-bearing formation within a reservoir, comprising: (a) introducing a foaming composition under pressure into the oil-bearing formation; (b) introducing a gas under pressure into the oil-bearing formation, wherein the presence of the foaming composition affects the flow of gas within the oil-bearing formation; and (c) extracting oil through a wellbore in the reservoir, wherein the foaming composition comprises a foam stabilizer, wherein the foam stabilizer is an alkyl amidopropyl hydroxy sulfobetaine, wherein the alkyl group has an integer number of carbon atoms from between 10 to 24, wherein the foaming composition further comprises an alkyl olefin sulfonate. (a) introducing a foaming composition under pressure into the oil-bearing formation; (b) introducing a gas under pressure into the oil-bearing formation, wherein the presence of the foaming composition affects the flow of gas within the oil-bearing formation; and (c) extracting oil through a wellbore in the reservoir,
Elastic conveyor belt for a transport system for conveying goods in a conveying direction along a conveyor belt plane of the conveyor belt, the conveyor belt comprising, a) on a carrying side of the conveyor belt, at least one carrying surface which is oriented along the conveyor belt plane and is intended for carrying the goods, and, b) on a guide side of the conveyor belt, at least one guide surface which is oriented along the conveyor belt plane and is intended for guiding the conveyor belt, and, c) in the guide surface, at least one groove for the engagement of a guide element for guiding the conveyor belt along the conveying direction, a longitudinal axis of the groove being oriented along the conveying direction, wherein the at least one groove d) comprises at least one base surface for defining a penetration depth of the guide element into the conveyor belt, and e) at least one left flank surface, which is arranged obliquely to the conveyor belt plane connecting the guide surface to the base surface, for left directional control of the guide element, and f) at least one right flank surface, which is arranged obliquely to the conveyor belt plane connecting the guide surface to the base surface, for right directional control of the guide element, wherein g) a base width of the base surface perpendicular to the conveying direction is less than an opening width of the groove perpendicular to the conveying direction and in a plane with the guide surface, characterized in that h) the base surface, the left flank surface and/or the right flank surface has a lower roughness than the guide surface. a) on a carrying side of the conveyor belt, at least one carrying surface which is oriented along the conveyor belt plane and is intended for carrying the goods, and, b) on a guide side of the conveyor belt, at least one guide surface which is oriented along the conveyor belt plane and is intended for guiding the conveyor belt, and, c) in the guide surface, at least one groove for the engagement of a guide element for guiding the conveyor belt along the conveying direction, a longitudinal axis of the groove being oriented along the conveying direction, wherein the at least one groove d) comprises at least one base surface for defining a penetration depth of the guide element into the conveyor belt, and e) at least one left flank surface, which is arranged obliquely to the conveyor belt plane connecting the guide surface to the base surface, for left directional control of the guide element, and f) at least one right flank surface, which is arranged obliquely to the conveyor belt plane connecting the guide surface to the base surface, for right directional control of the guide element, wherein g) a base width of the base surface perpendicular to the conveying direction is less than an opening width of the groove perpendicular to the conveying direction and in a plane with the guide surface, characterized in that h) the base surface, the left flank surface and/or the right flank surface has a lower roughness than the guide surface.
An electronically-implemented method of predistortion, the method comprising: receiving, by a receiver, a feedback signal indicative of an output of an amplifier, the feedback signal having a feedback signal bandwidth, wherein the receiver has a receiver bandwidth that is narrower than the feedback signal bandwidth; sweeping, by the receiver, through a plurality of isolated sub-bands (Z F) of the feedback signal to observe the feedback signal, wherein a combined bandwidth of the plurality of isolated sub-bands spans more than half of the feedback signal bandwidth, and wherein sweeping through the plurality of isolated sub-bands comprises; tuning the receiver to a first isolated sub-band of the plurality of isolated sub-bands; and after tuning the receiver to the first isolated sub-band, tuning the receiver to a second isolated sub-band of the plurality of isolated sub-bands; generating a virtual full-rate response ( Ẑ) for the amplifier based at least in part on the plurality of isolated sub-bands of the feedback signal; adaptively adjusting predistortion coefficients (α) based at least in part on the virtual full-rate response for the amplifier; and using the adjusted predistortion coefficients, applying digital predistortion to cause an input to the amplifier to be predistorted. receiving, by a receiver, a feedback signal indicative of an output of an amplifier, the feedback signal having a feedback signal bandwidth, wherein the receiver has a receiver bandwidth that is narrower than the feedback signal bandwidth; sweeping, by the receiver, through a plurality of isolated sub-bands (Z F) of the feedback signal to observe the feedback signal, wherein a combined bandwidth of the plurality of isolated sub-bands spans more than half of the feedback signal bandwidth, and wherein sweeping through the plurality of isolated sub-bands comprises; tuning the receiver to a first isolated sub-band of the plurality of isolated sub-bands; and after tuning the receiver to the first isolated sub-band, tuning the receiver to a second isolated sub-band of the plurality of isolated sub-bands; tuning the receiver to a first isolated sub-band of the plurality of isolated sub-bands; and after tuning the receiver to the first isolated sub-band, tuning the receiver to a second isolated sub-band of the plurality of isolated sub-bands; generating a virtual full-rate response ( Ẑ) for the amplifier based at least in part on the plurality of isolated sub-bands of the feedback signal; adaptively adjusting predistortion coefficients (α) based at least in part on the virtual full-rate response for the amplifier; and using the adjusted predistortion coefficients, applying digital predistortion to cause an input to the amplifier to be predistorted.
A method for configuring a controlling device to control a functional operation of a first controllable appliance, comprising: determining if the first controllable appliance is responsive to a command communication transmitted to the first controllable appliance by a second controllable appliance via a digital communications link; and causing the controlling device to be automatically configured whereupon the controlling device is caused to issue a communication directly to the first controllable appliance to control the functional operation of the first controllable appliance in the event that the first controllable appliance is unresponsive to the command communication and to issue a communication directly to the second controllable appliance to control the functional operation of the first controllable appliance via the digital communications link in the event that first controllable appliance is responsive to the command communication. determining if the first controllable appliance is responsive to a command communication transmitted to the first controllable appliance by a second controllable appliance via a digital communications link; and causing the controlling device to be automatically configured whereupon the controlling device is caused to issue a communication directly to the first controllable appliance to control the functional operation of the first controllable appliance in the event that the first controllable appliance is unresponsive to the command communication and to issue a communication directly to the second controllable appliance to control the functional operation of the first controllable appliance via the digital communications link in the event that first controllable appliance is responsive to the command communication.
System having a pressure tool for expanding a pipeline and a device for producing a pipeline unit from the pipeline having a pipeline outer surface and a pipe connector having a pipe connector outer surface, wherein the device has an annularly structured stress-relieving device having a longitudinal central axis (X-X) and a radially inwardly pointing stress-relieving device inner surface, wherein the stress-relieving device inner surface is adapted to the pipeline outer surface and/or the pipe connector outer surface in order to at least partially receive the pipeline unit to be produced in an operating state, and the stress-relieving device surrounds a pressure tool in the operating state so as to support the pipeline unit to be produced in the operating state when the pipeline is expanded by the pressure tool, characterized in that the stress-relieving device has a stress-relieving device annular body, which has two annular body elements that together form the stress-relieving device inner surface, which elements respectively have a fist end section and a second end section, wherein the first end sections are arranged pivotally moveable with respect to one another about a pivot axis (Y-Y), and wherein a connection element is arranged on each second end section and the connection elements are suitable for interacting with one another in order to releasably connect the second end sections, wherein the stress-relieving device inner surface has at least one annular groove for at least partially receiving the pipe connector, wherein the stress-relieving device forms an annular projection projecting radially inwards, which is delimited on one side by a first axial stress-relieving device end face and on the other side by a lateral groove boundary surface of the at least one annular groove facing away from the first axial stress-relieving device end face and wherein the stress-relieving device has a second axial stress-relieving device end face opposite the first axial stress-relieving device end face, which is stepped, which forms an annular stress-relieving device collar radially supporting the pipeline inserted into the pipe connector.
A process for separating palladium from other metal elements contained in a nitric aqueous phase consisting in: - contacting a nitric aqueous phase containing, in addition to palladium, at least one other metal cation the valence of which is higher than or equal to 2 with a water immiscible organic phase and then - separating the nitric aqueous phase and the organic phase in which palladium has been extracted, characterised in that said organic phase contains at least one sulfur atom-free malonamide as an extractant and in that said nitric aqueous phase contains at most 2.5 mol.L -1 of nitric acid. - contacting a nitric aqueous phase containing, in addition to palladium, at least one other metal cation the valence of which is higher than or equal to 2 with a water immiscible organic phase and then - separating the nitric aqueous phase and the organic phase in which palladium has been extracted,
A method of making a fluoropolymer object, comprising: - providing a substrate made of a fluoropolymer comprising units derived from monomers M 1, M 2 and M 3, wherein: ∘ M 1 is vinylidene fluoride; ∘ M 2 is a monomer of formula: CX 1 X 2 =CX 3 X 4, wherein each of X 1, X 2, X 3 and X 4 is independently selected from H, Cl and F, and wherein at least one of X 1, X 2, X 3 and X 4 is F; ∘ M 3 is a monomer of formula: CY 1 Y 2 =CY 3 CF 3, wherein each of Y 1, Y 2 and Y 3 is independently selected from H, Cl, F, Br, I and alkyl groups comprising from 1 to 3 carbon atoms which are optionally partly or fully halogenated; - stretching the substrate at a temperature higher than the Curie transition temperature of the fluoropolymer of the substrate, wherein the Curie transition temperature is measured by broadband dielectric spectroscopy at 1 kHz, using a heating rate of 2°C/min and an applied voltage of 1 Vrms, according to the method disclosed in present specification. - providing a substrate made of a fluoropolymer comprising units derived from monomers M 1, M 2 and M 3, wherein: ∘ M 1 is vinylidene fluoride; ∘ M 2 is a monomer of formula: CX 1 X 2 =CX 3 X 4, wherein each of X 1, X 2, X 3 and X 4 is independently selected from H, Cl and F, and wherein at least one of X 1, X 2, X 3 and X 4 is F; ∘ M 3 is a monomer of formula: CY 1 Y 2 =CY 3 CF 3, wherein each of Y 1, Y 2 and Y 3 is independently selected from H, Cl, F, Br, I and alkyl groups comprising from 1 to 3 carbon atoms which are optionally partly or fully halogenated; ∘ M 1 is vinylidene fluoride; ∘ M 2 is a monomer of formula: CX 1 X 2 =CX 3 X 4, wherein each of X 1, X 2, X 3 and X 4 is independently selected from H, Cl and F, and wherein at least one of X 1, X 2, X 3 and X 4 is F; ∘ M 3 is a monomer of formula: CY 1 Y 2 =CY 3 CF 3, wherein each of Y 1, Y 2 and Y 3 is independently selected from H, Cl, F, Br, I and alkyl groups comprising from 1 to 3 carbon atoms which are optionally partly or fully halogenated; - stretching the substrate at a temperature higher than the Curie transition temperature of the fluoropolymer of the substrate, wherein the Curie transition temperature is measured by broadband dielectric spectroscopy at 1 kHz, using a heating rate of 2°C/min and an applied voltage of 1 Vrms, according to the method disclosed in present specification.
Use of a steel alloy for a filler-metal wire, consisting of the following alloying elements in % by weight: C 0,04 - 1.0 Mn 7 - 30 Si ≤ 6 Al ≤ 4 Mo ≤ 2 Ti ≤ 0.5 Zr 0.01 - 0.1 B 0.001 - 0.01 P < 0.005 S < 0.002 N < 0.008, remainder iron and unavoidable steel accompanying elements for arc and laser-beam welding of mixed compounds of austenitic high-manganese-content and ferritic steel, wherein the high-manganese-content steel has a manganese content of at least 7 - 30% by weight.
A process for recording a predetermined identification image on a laminated identification document having a plurality of laminate layers, comprising: a) providing a laminated identification document comprising: i. a core laminate layer having an upper surface and lower surface, at least one surface of which is printed with a dot matrix pattern; and ii. at least one visually opaque or reflective laminate layer bonded to and overlaying the printed surface; b) pitting the opaque or reflective laminate layer to enable portions of the dot matrix pattern printed on the core laminate to be exposed to thereby form the identifying image. a) providing a laminated identification document comprising: i. a core laminate layer having an upper surface and lower surface, at least one surface of which is printed with a dot matrix pattern; and ii. at least one visually opaque or reflective laminate layer bonded to and overlaying the printed surface; i. a core laminate layer having an upper surface and lower surface, at least one surface of which is printed with a dot matrix pattern; and ii. at least one visually opaque or reflective laminate layer bonded to and overlaying the printed surface; b) pitting the opaque or reflective laminate layer to enable portions of the dot matrix pattern printed on the core laminate to be exposed to thereby form the identifying image.
A crystalline, nonlinear optical material having a composition represented by formula: M II [B 2 O 3 X 2] wherein M II is selected from the divalent cations of Sn, Pb, Be, Mg, Ca, Sr, and Ba or from combinations of two or more of these cations, X is selected from F, Cl, Br and I or from combinations thereof. M II is selected from the divalent cations of Sn, Pb, Be, Mg, Ca, Sr, and Ba or from combinations of two or more of these cations, X is selected from F, Cl, Br and I or from combinations thereof.