mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for using a computer system of a certificate authority to digitally sign software, the method comprising: receiving a request from a software developer to digitally sign software included in the request; accessing a security policy associated with the software developer, the security policy describing criteria for valid requests by the software developer including geo-locations from which valid requests are received; determining whether the request is valid based at least in part on the security policy describing criteria for valid requests; digitally signing the software responsive to the determination indicating that the request is valid; embedding reputation information associated with the digitally-signed software in a digital certificate, the reputation information including terms of the security policy that were met during verification of the request from the software developer to digitally sign the software and the reputation information including a reputation score calculated by the certificate authority based on which terms of the software developer's policy were met; and providing the digitally-signed software and the digital certificate to the software developer. receiving a request from a software developer to digitally sign software included in the request; accessing a security policy associated with the software developer, the security policy describing criteria for valid requests by the software developer including geo-locations from which valid requests are received; determining whether the request is valid based at least in part on the security policy describing criteria for valid requests; digitally signing the software responsive to the determination indicating that the request is valid; embedding reputation information associated with the digitally-signed software in a digital certificate, the reputation information including terms of the security policy that were met during verification of the request from the software developer to digitally sign the software and the reputation information including a reputation score calculated by the certificate authority based on which terms of the software developer's policy were met; and providing the digitally-signed software and the digital certificate to the software developer.
A method for producing a 3-phenylisoserine derivative, comprising: protecting an amino group of a compound represented by General Formula : wherein R 1 represents a phenyl group, or a phenyl group having a substituent; R 2 represents an alkali metal, alkaline earth metal, or nitrogen base; and R 3 represents a hydrogen atom, in water or a mixed solvent containing water to obtain a compound represented by General Formula : wherein R 1 , R 2 and R 3 have the meaning as defined above and R 4 represents a formyl group, acetyl group, benzoyl group, tert -butoxycarbonyl group, or benzyloxycarbonyl group; extracting with an ether solvent having four carbon atoms; replacing at least part of the ether solvent having four carbon atoms with a C 1 -C 4 aliphatic alcohol while removing the ether solvent having four carbon atoms and water to perform esterification reaction; and isolating at 0 to 30°C to obtain a 3-phenylisoserine derivative represented by General Formula : wherein R 1 , R 3 and R 4 have the meaning as defined above; and R 5 represents a C 1 -C 4 alkyl group, wherein the esterification reaction is carried out through an extraction step and a water removal step that are carried out subsequently without isolation of Compound as an intermediate.
Use of a polycarbonate-based composition A, comprising a) aromatic polycarbonate, where the polycarbonate has a mean weight-average molecular weight M w of 22 000 g/mol to 27 000 g/mol, determined by means of gel permeation chromatography to DIN 55672-1:2007-08, calibrated against bisphenol A polycarbonate standards using dichloromethane as eluent, and where the polycarbonate includes 0 to not more than 19 mol% of carbonate units of the formula where R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 and R 8 are independently H or C 1 - to C 6 -alkyl, and b) 0% to less than 0.2% by weight of a UV absorber or a UV absorber mixture, based on the total weight of the polycarbonate composition, for increasing the flow distance to wall thickness ratio in the production of transparent molded articles by means of injection molding. a) aromatic polycarbonate, where the polycarbonate has a mean weight-average molecular weight M w of 22 000 g/mol to 27 000 g/mol, determined by means of gel permeation chromatography to DIN 55672-1:2007-08, calibrated against bisphenol A polycarbonate standards using dichloromethane as eluent, and where the polycarbonate includes 0 to not more than 19 mol% of carbonate units of the formula where R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 and R 8 are independently H or C 1 - to C 6 -alkyl, and b) 0% to less than 0.2% by weight of a UV absorber or a UV absorber mixture, based on the total weight of the polycarbonate composition, for increasing the flow distance to wall thickness ratio in the production of transparent molded articles by means of injection molding.
A non-destructive testing system for testing a work piece from within the work piece , comprising: an ultrasonic probe , located within the work piece , which is configured to rotate a sound beam about a middle axis and to produce C-scan images and S-scan images ; and a hand-held display in communication with the ultrasonic probe ; wherein the hand-held display is configured to switch between displaying C-scan images in a radar-like view with a beam cursor or, using a position of the beam cursor, displaying S-scan images corresponding to the position of the beam cursor . an ultrasonic probe , located within the work piece , which is configured to rotate a sound beam about a middle axis and to produce C-scan images and S-scan images ; and a hand-held display in communication with the ultrasonic probe ; wherein the hand-held display is configured to switch between displaying C-scan images in a radar-like view with a beam cursor or, using a position of the beam cursor, displaying S-scan images corresponding to the position of the beam cursor .
Linear motor having a stator with exactly one coil which is enclosed in its entire length by a feedback element , and a rotor which is surrounded by the coil and can be displaced parallel to the stator, with a permanent magnet and a pole shoe made of soft magnetic material on one side of the permanent magnet , the length of the rotor corresponding approximately to the length of the feedback element of the stator, wherein there is a magnetic flux starting from the permanent magnet via the pole shoe radially outwards through the coil and the feedback element to an outside at an axial end of the feedback element , which is returned from the outside via a free air space to the permanent magnet , or, with the polarity direction of the permanent magnet reversed, in the reverse flux direction, and wherein the length of the return element is equal to the length of the rotor or between 0 percent and 10 percent greater than the length of the rotor .
A manufacturing method of a flexible circuit board , in which manufacturing method electrical circuit elements are manufactured with a reel-to-reel manufacturing equipment, by which a first patterned insulation layer is added by pressing or printing on a first surface of a metal foil having no support film, from which metal foil conductors of one layer of the flexible circuit board are manufactured, the manufacturing method further comprising that - a first patterned layer of conductive material is added on the first patterned insulation layer and to holes therein for obtaining a first wiring layer and vias of the circuit board , - an insulating, mechanical support film is glued, printed or laminated on the first patterned insulation layer and the first patterned layer of conductive material, and - after attaching the support film , the metal conductors to be arranged on the second surface of the metal foil are manufactured by etching. - a first patterned layer of conductive material is added on the first patterned insulation layer and to holes therein for obtaining a first wiring layer and vias of the circuit board , - an insulating, mechanical support film is glued, printed or laminated on the first patterned insulation layer and the first patterned layer of conductive material, and - after attaching the support film , the metal conductors to be arranged on the second surface of the metal foil are manufactured by etching.
A blurless image capturing system, comprising an image capturing camera unit, a mirror unit, and a control unit, wherein the image capturing camera unit and the mirror unit are both capable of continuous movement in at least a one-dimensional direction; the image capturing camera unit configured to acquire images of a physical object present within an object region by directing line of sight direction towards the object region by means of the mirror unit, the mirror unit comprises a mirror body and a drive unit, the mirror body is capable of reflecting light flux, and in this way changing direction of line of sight from the image capturing camera unit, the drive unit is configured to continuously direct line of sight from the image capturing camera unit to the physical object for a given time by changing angle of the mirror body in given angular velocity in accordance with movement of the image capturing camera unit and the mirror body, the drive unit is configured to direct line of sight from the image capturing camera unit to another object region by driving the mirror body, and the control unit is configured to control operation of the drive unit, wherein the control unit is configured to calculate the given angular velocity (ω') by using the images acquired by the image capturing camera unit and by using: movement distance (xd) of a same physical object on planes of images; width of the images in movement direction of the image capturing camera unit; and angle of view ( α ) of the image capturing camera unit. the image capturing camera unit and the mirror unit are both capable of continuous movement in at least a one-dimensional direction; the image capturing camera unit configured to acquire images of a physical object present within an object region by directing line of sight direction towards the object region by means of the mirror unit, the mirror unit comprises a mirror body and a drive unit, the mirror body is capable of reflecting light flux, and in this way changing direction of line of sight from the image capturing camera unit, the drive unit is configured to continuously direct line of sight from the image capturing camera unit to the physical object for a given time by changing angle of the mirror body in given angular velocity in accordance with movement of the image capturing camera unit and the mirror body, the drive unit is configured to direct line of sight from the image capturing camera unit to another object region by driving the mirror body, and the control unit is configured to control operation of the drive unit, wherein the control unit is configured to calculate the given angular velocity (ω') by using the images acquired by the image movement distance (xd) of a same physical object on planes of images; width of the images in movement direction of the image capturing camera unit; and angle of view ( α ) of the image capturing camera unit.
A method for printing a three-dimensional object (1210; 1305; 2002) onto a substrate using a printing device , the substrate being of a material being a textile, natural fabric, synthetic fabric, knit, woven material, nonwoven material, mesh, leather, synthetic leather, polymer, rubber, or foam, or any combination of them, the substrate being used to make articles of apparel or used to make articles of footwear, and the printing device being configured to print by dispensing droplets of print material including one or more pigments, the method comprising: receiving color graphic design information at the printing device , the color graphic design information representing a color graphic image; receiving the substrate at the printing device ; printing a lower color graphic layer (620; 1320; 2004) of the three-dimensional object (1210; 1305; 2002) onto the substrate using the color graphic design information ; printing one or more transparent structural layers (1104; 1322; 2006) of the three-dimensional object (1210; 1305; 2002) onto the lower color graphic layer (620; 1320; 2004); and printing an upper color graphic layer (1208; 1324; 2010) of the three-dimensional object (1210; 1305; 2002) onto an uppermost layer of the one or more transparent structural layers (1104; 1322; 2006) using the color graphic design information , wherein the upper color graphic layer (1208; 1324; 2010) and the lower color graphic layer (620; 1320; 2004) collectively visually depict the color graphic image. receiving color graphic design information at the printing device , the color graphic design information representing a color graphic image; receiving the substrate at the printing device ; printing a lower color graphic layer (620; 1320; 2004) of the three-dimensional object (1210; 1305; 2002) onto the substrate using the color graphic design information ; printing one or more transparent structural layers (1104; 1322; 2006) of the three-dimensional object (1210; 1305; 2002) onto the lower color graphic layer (620; 1320; 2004); and printing an upper color graphic layer (1208; 1324; 2010) of the three-dimensional object (1210; 1305; 2002) onto an uppermost layer of the one or more transparent structural layers (1104; 1322; 2006) using the color graphic design information , wherein the upper color graphic layer (1208; 1324; 2010) and the lower color graphic layer (620; 1320; 2004) collectively visually depict the color graphic image.
An electronic circuit, comprising: a first transistor device comprising a first drive node (G1), a second drive node (S1), and a load path (D1-S1); and a protection circuit coupled to the first and second drive nodes (G1, S1) and the load path (D1-S1) of the first transistor device , wherein the protection circuit comprises: a second transistor device comprising a first drive node (G2), a second drive node (S2), and a load path (D2-S2) connected between the first and second drive nodes (G1, S1) of the first transistor device ; and a capacitor coupled between the load path (D1-S1) of the first transistor device and the first drive node (G2) of the second transistor device , characterised in that a capacitance of the capacitor is voltage dependent such that the capacitance decreases as a voltage (V3) across the capacitor increases. a first transistor device comprising a first drive node (G1), a second drive node (S1), and a load path (D1-S1); and a protection circuit coupled to the first and second drive nodes (G1, S1) and the load path (D1-S1) of the first transistor device , wherein the protection circuit comprises: a second transistor device comprising a first drive node (G2), a second drive node (S2), and a load path (D2-S2) connected between the first and second drive nodes (G1, S1) of the first transistor device ; and a capacitor coupled between the load path (D1-S1) of the first transistor device and the first drive node (G2) of the second transistor device , characterised in that a capacitance of the capacitor is voltage dependent such that the capacitance decreases as a voltage (V3) across the capacitor increases. a second transistor device comprising a first drive node (G2), a second drive node (S2), and a load path (D2-S2) connected between the first and second drive nodes (G1, S1) of the first transistor device ; and a capacitor coupled between the load path (D1-S1) of the first transistor device and the first drive node (G2) of the second transistor device , characterised in that a capacitance of the capacitor is voltage dependent such that the capacitance decreases as a voltage (V3) across the capacitor increases.
A heater for an advanced driver assistance camera comprising: - a housing having a first opening sized to receive a lens of the advanced driver assistance camera therethrough into a housing volume and a second opening providing a transparent window area through which the driver assistance camera may receive an image when the lens is positioned in the housing volume; and - a heater element attached to the housing outside of the transparent window area to heat the transparent window area by at least one of conduction and convection, characterized in that the housing comprises a cylindrical sleeve sized to fit tightly over a cylindrical lens barrel of the camera supporting the lens and comprising at one end detent surfaces to retain the sleeve in proper position with respect to a groove in the lens barrel and the other end being covered by the transparent window area thus forming a lens cap design which is easily installed and replaced on the camera , said sleeve providing a sealed volume between the lens and the transparent window area, said heater element being applied to the inner surface of said portion of the sleeve surrounding the sealed volume . - a housing having a first opening sized to receive a lens of the advanced driver assistance camera therethrough into a housing volume and a second opening providing a transparent window area through which the driver assistance camera may receive an image when the lens is positioned in the housing volume; and - a heater element attached to the housing outside of the transparent window area to heat the transparent window area by at least one of conduction and convection,
A system for performing a percutaneous tracheostomy, comprising: an inflation assembly including an elongated tube , an inflatable member , a magnetic member , and a barrier member , the elongated tube having a first end, a second end, and defining a lumen, the inflatable member coupled to the first end of the elongated tube, the inflatable member fluidically coupled to the lumen such that the inflatable member can receive fluid via the lumen, the magnetic member coupled to the first end of the elongated tube such that movement of the magnetic member can cause corresponding movement of the first end of the elongated tube, the barrier member coupled to the inflatable member and configured to be more resistant to being pierced than a sidewall of the inflatable member; and a guidewire assembly including a guidewire having a first end and a second end, the first end of the guidewire assembly including a coupling member , the coupling member configured to couple to the inflatable member such that translation of the elongated tube translates the guidewire assembly. an inflation assembly including an elongated tube , an inflatable member , a magnetic member , and a barrier member , the elongated tube having a first end, a second end, and defining a lumen, the inflatable member coupled to the first end of the elongated tube, the inflatable member fluidically coupled to the lumen such that the inflatable member can receive fluid via the lumen, the magnetic member coupled to the first end of the elongated tube such that movement of the magnetic member can cause corresponding movement of the first end of the elongated tube, the barrier member coupled to the inflatable member and configured to be more resistant to being pierced than a sidewall of the inflatable member; and a guidewire assembly including a guidewire having a first end and a second end, the first end of the guidewire assembly including a coupling member , the coupling member configured to couple to the inflatable member such that translation of the elongated tube translates the guidewire assembly.
A method of drying an electrode assembly, comprising steps of: 1) stacking at least one anode, at least one cathode, and at least one separator interposed between the at least one anode and at least one cathode to prepare an electrode assembly; 2) placing the electrode assembly in a drying chamber; 3) drying the electrode assembly under vacuum at a temperature higher than 100 °C to 155 °C; 4) filling the drying chamber with dry air or inert gas; and 5) repeating steps 3) and 4) to obtain a dried electrode assembly, wherein the dry air or inert gas stays in the drying chamber for a time period of at least 5 minutes and less than 30 minutes; and wherein water content of the dried electrode assembly is less than 20 ppm by weight, based on total weight of the dried electrode assembly, and wherein the dry air or inert gas restores the drying chamber to atmospheric pressure . 1) stacking at least one anode, at least one cathode, and at least one separator interposed between the at least one anode and at least one cathode to prepare an electrode assembly; 2) placing the electrode assembly in a drying chamber; 3) drying the electrode assembly under vacuum at a temperature higher than 100 °C to 155 °C; 4) filling the drying chamber with dry air or inert gas; and 5) repeating steps 3) and 4) to obtain a dried electrode assembly,
A method of decoding coefficients in a video decoding process, the method comprising: determining a current block of coefficients of residual video data, wherein the block of coefficients comprises a first coefficient group, CG and a second CG that is subsequent to the first CG in the block of coefficients; decoding, for a coefficient in the first CG and using an adaptive context model, an indication that a coefficient level for the coefficient has an absolute value greater than two; decoding , using Golomb codes defined by a Rice parameter, a first value for use in determining the absolute value of the coefficient level for the coefficient in the first CG; determining the absolute value of the coefficient level for the coefficient to be equal to three plus said decoded first value; adjusting a value of the Rice parameter for the second CG based on whether a transform is applied to a transform block that includes the current block of coefficients, wherein a first process for adjusting the value of the Rice parameter is used if a transform is not used and a second process for adjusting the value of the Rice parameter is used if a transform is used, the second process being different to the first process; decoding a second value for use in determining the absolute value of a coefficient level for a coefficient in the second CG using Golomb codes defined by the adjusted value of the Rice parameter; and determining the absolute value of the coefficient level for the coefficient in the second CG to be equal to three plus said decoded second value. determining a current block of coefficients of residual video data, wherein the block of coefficients comprises a first coefficient group, CG and a second CG that is subsequent to the first CG in the block of coefficients; decoding, for a coefficient in the first CG and using an adaptive context model, an indication that a coefficient level for the coefficient has an absolute value greater than two; decoding , using Golomb codes defined by a Rice parameter, a first value for use in determining the absolute value of the coefficient level for the coefficient in the first CG; determining the absolute value of the coefficient level for the coefficient to be equal to three plus said decoded first value; adjusting a value of the Rice parameter for the second CG based on whether a transform is applied to a transform block that includes the current block of coefficients, wherein a first process for adjusting the value of the Rice parameter is used if a transform is not used and a second process for adjusting the value of the Rice parameter is used if a transform is used, the second process being different to the first process; decoding a second value for use in determining the absolute value of a coefficient level for a coefficient in the second CG using Golomb codes defined by the adjusted value of the Rice parameter; and determining the absolute value of the coefficient level for the coefficient in the second CG to be equal to three plus said decoded second value.