mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a fiber-reinforced transparent composite material , comprising the process steps: a) providing a material matrix melt; and b) producing reinforcing fibers , wherein process step b) comprises the process steps: b1) providing a mixture comprising a silicon source and a carbon source, wherein the silicon source and the carbon source are together present in particles of solid granules; b2) treating the mixture provided in process step b1) at a temperature in a range from ≥ 1400°C to ≤ 2000°C, in particular in a range from ≥ 1650°C to ≤ 1850°C in order to produce reinforcing fibers with a thickness in a range from ≥ 0.1 μm to ≤ 2 μm, wherein the reinforcing fibers being formed from silicon carbide, wherein the silicon carbide is monocrystalline 3C-SiC or 6HSiC, wherein the method comprises the further process steps: c) introducing the reinforcing fibers into the material melt in such a way that the reinforcing fibers are present in an amount of ≥ 2 vol.-% to ≤ 60 vol.-%; and d) optionally cooling the material melt in order to form a transparent composite material . a) providing a material matrix melt; and b) producing reinforcing fibers , wherein process step b) comprises the process steps: b1) providing a mixture comprising a silicon source and a carbon source, wherein the silicon source and the carbon source are together present in particles of solid granules; b2) treating the mixture provided in process step b1) at a temperature in a range from ≥ 1400°C to ≤ 2000°C, in particular in a range from ≥ 1650°C to ≤ 1850°C in order to produce reinforcing fibers with a thickness in a range from ≥ 0.1 μm to ≤ 2 μm, wherein the reinforcing fibers being formed from silicon carbide, wherein the silicon carbide is monocrystalline 3C-SiC or 6HSiC, wherein the method comprises the further process steps: b1) providing a mixture comprising a silicon source and a carbon source, wherein the silicon source and the carbon source are together present in particles of solid granules; b2) treating the mixture provided in process step b1) at a temperature in a range from ≥ 1400°C to ≤ 2000°C, in particular in a range from ≥ 1650°C to ≤ 1850°C in order to produce reinforcing fibers with a thickness in a range from ≥ 0.1 μm to ≤ 2 μm, wherein the reinforcing fibers being formed from silicon carbide, wherein the silicon carbide is monocrystalline 3C-SiC or 6HSiC, wherein the method comprises the further process steps: c) introducing the reinforcing fibers into the material melt in such a way that the reinforcing fibers are present in an amount of ≥ 2 vol.-% to ≤ 60 vol.-%; and d) optionally cooling the material melt in order to form a transparent composite material .
A utility vehicle comprising at least one front ground-engaging member configured to contact a ground surface (G); at least one rear ground-engaging member configured to contact the ground surface; a drivetrain assembly operably coupled to the ground-engaging members; a frame supported by the ground-engaging members and extending along a longitudinal axis of the utility vehicle; a cab frame coupled to and extending upwardly from the frame; a rear cargo bed assembly supported by the frame and extending over a portion of the rear ground-engaging member; and a rear cab frame assembly having an upright position and a collapsed position, characterized in that when the rear cab frame assembly is in the collapsed position, the vehicle has a collapsed height (h 2 ) from the ground surface of 198.12 cm (78 inches) less and defined by a member of the rear cab frame assembly, whereby the rear cab frame assembly extends over the cab frame and the rear cargo bed assembly when in the upright position.
A well tool for removing metal debris from a well bore, comprising a magnet element , an anti-torque anchor , a debris removal unit , a debris container and a first connecting end for a rotatable well string, wherein - the magnet element comprises a cylinder-shaped housing having a first end and a second end ; - the debris removal unit comprises a helix-shaped longitudinal guide element arranged around the cylinder-shaped housing ; - the anti-torque anchor is operably connected to the cylinder-shaped housing or the helix-shaped longitudinal guide element , such that actuation of the anti-torque anchor during use will prevent rotation of the cylinder-shaped housing or the helix-shaped longitudinal guide element , respectively, relative the well-bore; and - the debris container comprises an opening arranged at the second end of the cylinder-shaped housing, wherein the cylinder-shaped housing and the helix-shaped longitudinal guide element are rotatable relative each other around a centreline (C) of the well tool, and configured such that metal debris accumulating on the cylinder-shaped housing during use is guided by the helix-shaped longitudinal guide element towards the opening of the debris container when the anti-torque anchor is actuated and the first connecting end is rotated. - the magnet element comprises a cylinder-shaped housing having a first end and a second end ; - the debris removal unit comprises a helix-shaped longitudinal guide element arranged around the cylinder-shaped housing ; - the anti-torque anchor is operably connected to the cylinder-shaped housing or the helix-shaped longitudinal guide element , such that actuation of the anti-torque anchor during use will prevent rotation of the cylinder-shaped housing or the helix-shaped longitudinal guide element , respectively, relative the well-bore; and - the debris container comprises an opening arranged at the second end of the cylinder-shaped housing,
An apparatus for the use of controlling a puppet, comprising: a mounting plate defining at least one aperture ; at least one ball with a through hole, disposed to rest within the aperture of the mounting plate ; at least one rod having a first end , extending through the mounting plate and the ball to a second end thereof; a ball brace defining at least one aperture , configured to engage the ball and the rod , engaging the rod between the first end and the second end ; at least one screw , disposed to engage the mounting plate , configured to be tightened to lock the ball brace and the ball in a desired position, and configured to be loosened to enable movement of the ball and the rod ; wherein the rod is configured to extend through the ball brace , the ball , and the aperture of the mounting plate and to engage with an inside of a puppet with the first end ; and wherein the rod , when engaged with the inside of the puppet, moves the inside of the puppet when moved from the second end . a mounting plate defining at least one aperture ; at least one ball with a through hole, disposed to rest within the aperture of the mounting plate ; at least one rod having a first end , extending through the mounting plate and the ball to a second end thereof; a ball brace defining at least one aperture , configured to engage the ball and the rod , engaging the rod between the first end and the second end ; at least one screw , disposed to engage the mounting plate , configured to be tightened to lock the ball brace and the ball in a desired position, and configured to be loosened to enable movement of the ball and the rod ; wherein the rod is configured to extend through the ball brace , the ball , and the aperture of the mounting plate and to engage with an inside of a puppet with the first end ; and wherein the rod , when engaged with the inside of the puppet, moves the inside of the puppet when moved from the second end .
A method of detecting proximity, comprising: providing a first capacitive sensing element configured to be used to detect a proximity or touch by reading a self-capacitance of the first capacitive sensing element; providing a second capacitive sensing element configured to have a reduced sensitivity to the proximity or touch; storing a coefficient for the second capacitive sensing element in a register ; generating a digital value representative of the reading of the first capacitive sensing element by approximately canceling an effect of an environmental capacitance from the reading of the first capacitive sensing element, wherein the environmental capacitance is the self-capacitance of the first capacitive sensing element when a conductive object to be detected is not present near the first capacitive sensing element; determining a coefficient modified reading of the second capacitive sensing element by multiplying a reading of the second capacitive sensing element by the stored coefficient for the second capacitive sensing element; and adjusting the digital value representative of the reading of the first capacitive sensing element by subtracting the coefficient modified reading of the second capacitive sensing element from the reading of the first capacitive sensing element. providing a first capacitive sensing element configured to be used to detect a proximity or touch by reading a self-capacitance of the first capacitive sensing element; providing a second capacitive sensing element configured to have a reduced sensitivity to the proximity or touch; storing a coefficient for the second capacitive sensing element in a register ; generating a digital value representative of the reading of the first capacitive sensing element by approximately canceling an effect of an environmental capacitance from the reading of the first capacitive sensing element, wherein the environmental capacitance is the self-capacitance of the first capacitive sensing element when a conductive object to be detected is not present near the first capacitive sensing element; determining a coefficient modified reading of the second capacitive sensing element by multiplying a reading of the second capacitive sensing element by the stored coefficient for the second capacitive sensing element; and adjusting the digital value representative of the reading of the first capacitive sensing element by subtracting the coefficient modified reading of the second capacitive sensing element from the reading of the first capacitive sensing element.
A method for producing a water/oil repellent article, wherein the water/oil repellent article is characterized by comprising a substrate and, as adhered to the surface of the substrate, the following fluorinated polymer and fluorinated ether compound: Fluorinated polymer: a polymer having structural units based on monomer (a) having a C 1-6 perfluoroalkyl group, Fluorinated ether compound: a compound represented by the following formula : A-U-W-V-B where A and B are each independently -CF 3 , -OH, -C(O)OCH 3 , -C(O)OH or a hydrolyzable silyl group but excluding a case where both A and B are -C(O)OH, U is a divalent organic group which may have fluorine atom(s), a single bond or, when A is CF 3 -, an oxygen atom, V is a divalent organic group which may have fluorine atom(s), or, when B is -CF 3 , a single bond, and W is a group represented by the following formula : -(CF 2 CF 2 O) b (CF 2 O) c (CF 2 CF(CF 3 )O) d (CF(CF 3 )CF 2 O) e (CF 2 CF 2 CF 2 O) f (CF 2 CF 2 CF 2 CF 2 O) g - where b, c, d, e, f and g are each independently an integer of from 0 to 180, provided that b+c+d+e+f+g is an integer of from 5 to 400, and the order of binding of the respective oxyperfluoroalkylene units is not limited, wherein the method comprises letting the fluorinated polymer and fluorinated ether compound be adhered to the substrate, wherein the substrate is treated with a first liquid containing the fluorinated polymer, and the substrate treated with the first liquid is treated with a second liquid containing the fluorinated ether compound. Fluorinated polymer: a polymer having structural units based on monomer (a) having a C 1-6 perfluoroalkyl group, Fluorinated ether compound: a compound represented by the following formula : A-U-W-V-B where A and B are each independently -CF 3 , -OH, -C(O)OCH 3 , -C(O)OH or a hydrolyzable silyl group but excluding a case where both A and B are -C(O)OH, U is a divalent organic group which may have fluorine atom(s), a single bond or, when A is CF 3 -, an oxygen atom, V is a divalent organic group which may have fluorine atom(s), or, when B is -CF 3 , a single bond, and W is a group represented by the following formula : -(CF 2 CF 2 O) b (CF 2 O) c (CF 2 CF(CF 3 )O) d (CF(CF 3 )CF 2 O) e (CF 2 CF 2 CF 2 O) f (CF 2 CF 2 CF 2 CF 2 O) g - where b, c, d, e, f and g are each independently an integer of from 0 to 180, provided that b+c+d+e+f+g is an integer of from 5 to 400, and the order of binding of the respective oxyperfluoroalkylene units is not limited, wherein the method comprises letting the fluorinated polymer and fluorinated ether compound be adhered to the substrate, wherein the substrate is treated with a first liquid containing the fluorinated polymer, and the substrate treated with the first liquid is treated with a second liquid containing the fluorinated ether compound.
Method for setting a setpoint angle of alignment α A of an implement attached to an agricultural utility vehicle by means of a power lift , wherein - the power lift has an upper link , articulated on a supporting structure of the utility vehicle , and at least one lower link , articulated on the supporting structure of the utility vehicle , - the upper link is connected to a point of articulation (B) of the supporting structure and to a coupling point (D) of the attachment , - the lower link is connected to a further point of articulation (A) of the supporting structure and to a further coupling point (C) of the attachment , - the setpoint angle of alignment α A is set by means of a setpoint length L O of the upper link , and - the setpoint length L O of the upper link is determined in dependence on the setpoint angle of alignment α A and in dependence on a lower-link angle α U , wherein the lower-link angle α U is enclosed by the lower link and a vehicle horizontal , characterized in that the setpoint angle of alignment α A of the attachment is adapted with reference to a slope angle α S of the utility vehicle , with respect to the Earth's horizontal by increasing or reducing the setpoint angle of alignment α A , depending on the direction of the gradient, in accordance with the difference between a setpoint slope angle α S Ref to be maintained and the current slope angle α S for a front power lift in accordance with α A → α A + α S − α S Ref and for a rear power lift in accordance with α A → α A + α S − α S Ref - the power lift has an upper link , articulated on a supporting structure of the utility vehicle , and at least one lower link , articulated on the supporting structure of the utility vehicle , - the upper link is connected to a point of articulation (B) of the supporting structure and to a coupling point (D) of the attachment , - the lower link is connected to a further point of articulation (A) of the supporting structure and to a further coupling point (C) of the attachment , - the setpoint angle of alignment α A is set by means of a setpoint length L O of the upper link , and - the setpoint length L O of the upper link is determined in dependence on the setpoint angle of alignment α A and in dependence on a lower-link angle α U , wherein the lower-link angle α U is enclosed by the lower link and a vehicle horizontal , characterized in that the setpoint angle of alignment α A of the attachment is adapted with reference to a slope angle α S of the utility vehicle , with respect to the Earth's horizontal by increasing or reducing the setpoint angle of alignment α A , depending on the direction of the gradient, in accordance with the difference between a setpoint slope angle α S Ref to be maintained and the current slope angle α S for a front power lift in accordance with α A → α A + α S − α S Ref and for a rear power lift in accordance with α A → α A + α S − α S Ref
A housing (102; 401) used for fluidic testing, comprising: a fluidic testing arrangement (110; 200; 308), comprising: a microfluidic channel (202; 302) having only one port (204; 304); a first chamber disposed at a terminal end of the microfluidic channel (202; 302); and a second chamber (210; 312) coupled to the microfluidic channel (202; 302), the second chamber (210; 312) being in a series arrangement with the first chamber ; and a reagent insert having reagents on one side of the reagent insert , and shaped to fit snugly within a hole (108; 112; 404) through a backside of the housing (102; 401), wherein the hole (108; 112; 404) is aligned within the second chamber (210; 312). a fluidic testing arrangement (110; 200; 308), comprising: a microfluidic channel (202; 302) having only one port (204; 304); a first chamber disposed at a terminal end of the microfluidic channel (202; 302); and a second chamber (210; 312) coupled to the microfluidic channel (202; 302), the second chamber (210; 312) being in a series arrangement with the first chamber ; and a microfluidic channel (202; 302) having only one port (204; 304); a first chamber disposed at a terminal end of the microfluidic channel (202; 302); and a second chamber (210; 312) coupled to the microfluidic channel (202; 302), the second chamber (210; 312) being in a series arrangement with the first chamber ; and a reagent insert having reagents on one side of the reagent insert , and shaped to fit snugly within a hole (108; 112; 404) through a backside of the housing (102; 401), wherein the hole (108; 112; 404) is aligned within the second chamber (210; 312).
A method of correcting errors in the output of an image detector due to a stray or parasitic capacitance, the detector comprising at least one detector element, and wherein the operation of the image detector comprises a charge transfer mechanism, the method comprising the step of: measuring an output signal (V m ) of a capacitor (C sh ) holding a voltage corresponding to a signal detected by the detector element; comparing the value of output signal (V m ) to the value of the previously measured output signal (V m-1 ) of the capacitor (C sh ) each corresponding to a signal detected by the detector element; calculating the error in the output signal (V m ) using a correction factor determined during a calibration process, and the difference between the value of the output signal (V m ) and the value of the previously measured output signal (V m-1 ); and providing a corrected output value (V crt ) in accordance with the calculated error; wherein the or each detector element comprises a capacitor C pix , and the charge transfer mechanism comprises a charge being transferred from the capacitor C pix to the capacitor C sh , and the charge transfer mechanism further includes a stray or parasitic capacitance C str within the image detector, which is not reset as part of the normal operation of the image detector; wherein the correction factor is dependent on the ratio: C str C pix + C sh ; and wherein the correct output value (V crt ) is calculated by: V crt = V m + V m − V m − 1 C str C pix + C sh . measuring an output signal (V m ) of a capacitor (C sh ) holding a voltage corresponding to a signal detected by the detector element; comparing the value of output signal (V m ) to the value of the previously measured output signal (V m-1 ) of the capacitor (C sh ) each corresponding to a signal detected by the detector element; calculating the error in the output signal (V m ) using a correction factor determined during a calibration process, and the difference between the value of the output signal (V m ) and the value of the previously measured output signal (V m-1 ); and providing a corrected output value (V crt ) in accordance with the calculated error; wherein the or each detector element comprises a capacitor C pix , and the charge transfer mechanism comprises a charge being transferred from the capacitor C pix to the capacitor C sh , and the charge transfer mechanism further includes a stray or parasitic capacitance C str within the image detector, which is not reset as part of the normal operation of the image detector; wherein the correction factor is dependent on the ratio: C str C pix + C sh ; and wherein the correct output value (V crt ) is calculated by: V crt = V m + V m − V m − 1 C str C pix + C sh .
Foldable modular packaging , comprising: - at least four panels which can move between: - a folded position, in which the panels are stacked on each other, and - an unfolded position, in which the panels form a parallelepiped frame which, defining an internal volume ; - a flexible inner container able to be placed in the said internal volume ; and - an assembly system comprising linking elements forming a pivot link between each panel and at least one adjacent panel ; the package being such that in the folded position the flexible inner container is retracted between the panels ; the panels being interchangeable ; characterised in that the package comprises a standardized handling pallet and a lower frame designed to be interposed between a lower one of said panels of the package and the pallet , the frame having a lower face comprising protruding elements corresponding in size and position to open spaces of the pallet . - at least four panels which can move between: - a folded position, in which the panels are stacked on each other, and - an unfolded position, in which the panels form a parallelepiped frame which, defining an internal volume ; - a folded position, in which the panels are stacked on each other, and - an unfolded position, in which the panels form a parallelepiped frame which, defining an internal volume ; - a flexible inner container able to be placed in the said internal volume ; and - an assembly system comprising linking elements forming a pivot link between each panel and at least one adjacent panel ; the package being such that in the folded position the flexible inner container is retracted between the panels ; the panels being interchangeable ; characterised in that the package comprises a standardized handling pallet and a lower frame designed to be interposed between a lower one of said panels of the package and the pallet , the frame having a lower face comprising protruding elements corresponding in size and position to open spaces of the pallet . the package being such that in the folded position the flexible inner container is retracted between the panels ; the panels being interchangeable ; characterised in that the package comprises a standardized handling pallet and a lower frame designed to be interposed between a lower one of said panels of the package and the pallet , the frame having a lower face comprising protruding elements corresponding in size and position to open spaces of the pallet .
A battery housing for a battery module comprising: - a plurality of exterior walls surrounding a base forming an internal section which is configured to receive one or more battery cells ; - a bottom surface in the internal section ; - a heat sink joined to the bottom surface of the battery housing by a plastic deformation of a portion of the housing due to application of heat to the heat sink , melting of the portion of the housing and pressing the heated heat sink into the bottom surface ; and - a cover enclosing the internal section . - a plurality of exterior walls surrounding a base forming an internal section which is configured to receive one or more battery cells ; - a bottom surface in the internal section ; - a heat sink joined to the bottom surface of the battery housing by a plastic deformation of a portion of the housing due to application of heat to the heat sink , melting of the portion of the housing and pressing the heated heat sink into the bottom surface ; and - a cover enclosing the internal section .