mhurhangee/ep-ind-claims huggingface dataset:
A poly(ester-anhydride) copolymer having alternating or semi-alternating ester and anhydride bonds of Formula wherein R' is a branched C 2 -C 40 alkenyl comprising a C 1 -C 10 alkyl - C 2 -C 20 alkenyl, wherein the C 1 -C 10 alkyl is α to the -O- of the ester bond; R" is a linear C 4 -C 22 alkyl; x and y, independently for each occurrence, is an integer selected from 1 and 2; and n is an integer from 2 to 1,000. R' is a branched C 2 -C 40 alkenyl comprising a C 1 -C 10 alkyl - C 2 -C 20 alkenyl, wherein the C 1 -C 10 alkyl is α to the -O- of the ester bond; R" is a linear C 4 -C 22 alkyl; x and y, independently for each occurrence, is an integer selected from 1 and 2; and n is an integer from 2 to 1,000.
LED module comprising: - a carrier with a high degree of reflection, wherein a metallic layer, preferably a silver layer or a layer made of ultrapure aluminum, is applied to the carrier, - an oxide layer over the metallic layer, and - wherein a lacquer layer is provided over the metallic layer and the oxide layer, - further comprising an LED chip on the metallic layer, - wherein the lacquer layer comprises free spaces into which the LED chips are inserted in order to be applied to the metallic layer. - a carrier with a high degree of reflection, wherein a metallic layer, preferably a silver layer or a layer made of ultrapure aluminum, is applied to the carrier, - an oxide layer over the metallic layer, and - wherein a lacquer layer is provided over the metallic layer and the oxide layer, - further comprising an LED chip on the metallic layer, - wherein the lacquer layer comprises free spaces into which the LED chips are inserted in order to be applied to the metallic layer.
A method of fault protection in a high-voltage power transmission line comprising n s ≥ 2 sections (103, 104), the method comprising: detecting, at a first end of the transmission line, an arrival of a fault-induced travelling wave at a first time of arrival t 1, detecting, at a second end of the transmission line, an arrival of the fault-induced travelling wave at a second time of arrival t 2, calculating a time difference Δ t between the first time of arrival and the second time of arrival, Δ t = t 1 - t 2, determining that the fault occurred in section n f of the transmission line, characterized by comparing the time difference Δ t to a plurality of pre-determined time differences Δ t n, where n = 1... ns + 1, determining that the fault occurred in section n f of the transmission line if Δ t nf < Δt < Δ t nf+1 wherein each pre-determined time difference Δ t n is the difference between the first time of arrival and the second time of arrival of a traveling wave induced by a fault occurring at a junction n (101, 102, 106), where n = 1 corresponds to the first end of the transmission line, n = n s + 1 corresponds to the second end of the transmission line, and n = 2... n s is the junction between two adjacent sections n - 1 and n of the transmission line, the time differences being pre-calculated based on the length of and propagation velocity of a traveling wave in each section. detecting, at a first end of the transmission line, an arrival of a fault-induced travelling wave at a first time of arrival t 1, detecting, at a second end of the transmission line, an arrival of the fault-induced travelling wave at a second time of arrival t 2, calculating a time difference Δ t between the first time of arrival and the second time of arrival, Δ t = t 1 - t 2, determining that the fault occurred in section n f of the transmission line, characterized by comparing the time difference Δ t to a plurality of pre-determined time differences Δ t n, where n = 1... ns + 1, determining that the fault occurred in section n f of the transmission line if Δ t nf < Δt < Δ t nf+1 wherein each pre-determined time difference Δ t n is the difference between the first time of arrival and the second time of arrival of a traveling wave induced by a fault occurring at a junction n (101, 102, 106), where n = 1 corresponds to the first end of the transmission line, n = n s + 1 corresponds to the second end of the transmission line, and n = 2... n s is the junction between two adjacent sections n - 1 and n of the transmission line, the time differences being pre-calculated based on the length of and propagation velocity of a traveling wave in each section.
A computer-implemented method for secure and reliable customization of operating system kernels, the method comprising: performing a security verification by a kernel security module loaded to an operating system kernel to run kernel-level scripts on the operating system kernel, the security verification comprising operations of: identifying, at the kernel security module, a script received at a sandbox environment of the kernel security module for requested execution by the operating system kernel, and verifying, using a key from the sandbox environment, whether the script has a valid signature wherein the sandbox environment is a secure memory space including a set of memory locations that are exclusively assigned to the kernel security module and not accessible by the operating system kernel; determining, at the kernel security module and based on the security verification, whether to permit execution of the script for running on the operating system kernel; and identifying, based on the determining, executable code corresponding to the script to execute at the operating system kernel. performing a security verification by a kernel security module loaded to an operating system kernel to run kernel-level scripts on the operating system kernel, the security verification comprising operations of: identifying, at the kernel security module, a script received at a sandbox environment of the kernel security module for requested execution by the operating system kernel, and verifying, using a key from the sandbox environment, whether the script has a valid signature wherein the sandbox environment is a secure memory space including a set of memory locations that are exclusively assigned to the kernel security module and not accessible by the operating system kernel; identifying, at the kernel security module, a script received at a sandbox environment of the kernel security module for requested execution by the operating system kernel, and verifying, using a key from the sandbox environment, whether the script has a valid signature wherein the sandbox environment is a secure memory space including a set of memory locations that are exclusively assigned to the kernel security module and not accessible by the operating system kernel; determining, at the kernel security module and based on the security verification, whether to permit execution of the script for running on the operating system kernel; and identifying, based on the determining, executable code corresponding to the script to execute at the operating system kernel.
A diluent for semen preservation comprising: a- a cytoprotective agent selected from: carvacrol, isoespintanol and mixtures thereof; b- a cryoprotective agent selected from: ethylene glycol, methyl formamide, dimethylformamide, diethylformamide, egg yolk and mixtures thereof; and c- coadjuvants selected from: glucose, fructose, sucrose, saturated and/or unsaturated lipids, caseins, albumins, seminal plasma, vitamin E, vitamin C, vitamin A, phosphate buffer system, tris buffer system, ascorbic acid, α-tocopherol, β-carotene, caffeine, pentoxifylline, taurine, gentamicin, penicillin, streptomycin, amphotericin and mixtures thereof. a- a cytoprotective agent selected from: carvacrol, isoespintanol and mixtures thereof; b- a cryoprotective agent selected from: ethylene glycol, methyl formamide, dimethylformamide, diethylformamide, egg yolk and mixtures thereof; and c- coadjuvants selected from: glucose, fructose, sucrose, saturated and/or unsaturated lipids, caseins, albumins, seminal plasma, vitamin E, vitamin C, vitamin A, phosphate buffer system, tris buffer system, ascorbic acid, α-tocopherol, β-carotene, caffeine, pentoxifylline, taurine, gentamicin, penicillin, streptomycin, amphotericin and mixtures thereof.
Waveguide assembly including a main waveguide comprising an arrangement of electrically conductive pins protruding from a basis; a circuit with an emitter for electromagnetic waves; a plate, different from the basis, the plate comprising an electrically conductive material, the plate positioned between the main waveguide and the emitter, the plate having an opening for electromagnetic waves from the emitter to pass through the plate; a group of conductive pins on a side of the plate opposite the main waveguide, the group of pins surrounding the emitter and the opening such that the group of pins forms a first transition waveguide for passing electromagnetic radiation from the emitter through the opening, wherein the pins of the group of pins surrounding the emitter extend through the plate. a main waveguide comprising an arrangement of electrically conductive pins protruding from a basis; a circuit with an emitter for electromagnetic waves; a plate, different from the basis, the plate comprising an electrically conductive material, the plate positioned between the main waveguide and the emitter, the plate having an opening for electromagnetic waves from the emitter to pass through the plate; a group of conductive pins on a side of the plate opposite the main waveguide, the group of pins surrounding the emitter and the opening such that the group of pins forms a first transition waveguide for passing electromagnetic radiation from the emitter through the opening, wherein the pins of the group of pins surrounding the emitter extend through the plate.
Method for manufacturing springs by means of a numerically controlled spring machine, in which a wire is fed in a feed direction to a forming device of the spring machine by a feed device (110, 410, 510, 610, 710) under the control of a control program and is formed into a spring with the aid of tools of the forming device in a forming operation, wherein the forming device has a mandrel (130, 435, 535, 635, 735, DO) with a mandrel axis oriented at right angles to the feed direction, and coils of the spring surround the mandrel during the forming operation, wherein the position and/or the orientation of the feed device is/are adjusted with the aid of a controllable machine axis during the forming operation, characterized in that a spring having windings of different winding diameter is produced during the forming operation, wherein the position and/or orientation of the feed device (110, 410, 510, 610, 710) is/are changed during the forming operation in such a way that the feed direction defined by the feed device always extends substantially tangentially to a winding of the spring just being produced.
An absorbent assembly comprising: an elastic outer cover comprising a front and back waist region having uppermost and lowermost edges, and a crotch region interposed between the front and back waist region, wherein the uppermost edges of the waist region form a waist opening and the lowermost edges of the waist region together with lateral extremities of the crotch region form two oppositely disposed leg openings; and a disposable absorbent insert comprising a liquid permeable topsheet, a liquid impermeable backsheet, and an absorbent core interposed between said topsheet and said backsheet, wherein a skin-facing surface of said outer cover comprises one or more fastening surfaces and wherein a garment-facing surface of the absorbent insert comprises one or more fastening surfaces arranged to releasably engage with the one or more fastening surfaces of said outer cover, and characterized in that said crotch region comprises one or more re-fastenable members such that said crotch region is unitary when said re-fastenable members are fastened and that said crotch region is separated into two crotch halfs when said re-fastenable members are unfastened to form a crotch-release opening, and in that the disposable absorbent insert may be single-handedly removed from said elastic outer cover from said crotch-release opening. an elastic outer cover comprising a front and back waist region having uppermost and lowermost edges, and a crotch region interposed between the front and back waist region, wherein the uppermost edges of the waist region form a waist opening and the lowermost edges of the waist region together with lateral extremities of the crotch region form two oppositely disposed leg openings; and a disposable absorbent insert comprising a liquid permeable topsheet, a liquid impermeable backsheet, and an absorbent core interposed between said topsheet and said backsheet, wherein a skin-facing surface of said outer cover comprises one or more fastening surfaces and wherein a garment-facing surface of the absorbent insert comprises one or more fastening surfaces arranged to releasably engage with the one or more fastening surfaces of said outer cover, and characterized in that said crotch region comprises one or more re-fastenable members such that said crotch region is unitary when said re-fastenable members are fastened and that said crotch region is separated into two crotch halfs when said re-fastenable members are unfastened to form a crotch-release opening, and in that the disposable absorbent insert may be single-handedly removed from said elastic outer cover from said crotch-release opening.
A spinal orthosis, comprising: a rear panel having first and second sides; a first belt member having a first end secured to the first side of the rear panel and a second end having a foldable portion adapted to fold over a first surface of the first belt member and secure to the first surface to reduce a length of the first belt member; a second belt member having a first end secured to the second side of the rear panel and a second end having a foldable portion adapted to fold over a first surface of the second belt member and secure to the first surface to reduce a length of the second belt member; first and second front closures (126, 128) separable from and securable over the second ends (123, 125) of the first and second belt members (114, 116), respectively, and arranged for removably securing to one another to form a continuously circumferential loop with the rear panel and the first and second belt members (114, 116), the first and second front closures (126,128) defines first and second clamping sections (160, 162) arranged to removably secure to opposed sides of the foldable portion of the first belt member; wherein the second ends (123, 125) of the first and second belt members (114, 116) each include fasteners extending from an outer side of the spinal orthosis for securing to a surface of the first and second belt members (114, 116) on the outer side of the spinal orthosis. a rear panel having first and second sides; a first belt member having a first end secured to the first side of the rear panel and a second end having a foldable portion adapted to fold over a first surface of the first belt member and secure to the first surface to reduce a length of the first belt member; a second belt member having a first end secured to the second side of the rear panel and a second end having a foldable portion adapted to fold over a first surface of the second belt member and secure to the first surface to reduce a length of the second belt member; first and second front closures (126, 128) separable from and securable over the second ends (123, 125) of the first and second belt members (114, 116), respectively, and arranged for removably securing to one another to form a continuously circumferential loop with the rear panel and the first and second belt members (114, 116), the first and second front closures (126,128) defines first and second clamping sections (160, 162) arranged to removably secure to opposed sides of the foldable portion of the first belt member; wherein the second ends (123, 125) of the first and second belt members (114, 116) each include fasteners extending from an outer side of the spinal orthosis for securing to a surface of the first and second belt members (114, 116) on the outer side of the spinal orthosis.
A process for producing magnesium metal from magnesium-bearing ores, comprising the steps of: (a) leaching the magnesium-bearing ores with HCI obtaining a slurry comprising magnesium chloride; (b) filtrating the slurry to obtain a magnesium chloride solution and a silica by-product; (c) purifying the magnesium chloride solution by increasing the pH adding a neutralizing agent and an oxidizing agent; (d) separating iron residues from the magnesium chloride solution; (e) recuperating nickel contained in the magnesium chloride solution by increasing a second time the pH by adding a base and recovering a nickel rich fraction by filtration; (f) adding an oxidizing agent and increasing the pH a third time of the magnesium chloride solution by adding a base and precipitating residual metallic impurities; (g) adding a neutral salt to said magnesium chloride solution precipitating sulfate ions from said magnesium chloride solution and separating metal impurities and sulfates from said magnesium chloride solution producing a pure magnesium brine; (h) evaporating water from the magnesium brine and recovering MgCl 2 •6H 2 O by crystallization using dry gaseous hydrogen chloride; (i) dehydrating the MgCl 2 •6H 2 O to obtain anhydrous magnesium chloride; and (j) electrolizing the anhydrous magnesium chloride in an electrolytic cell, containing an anode and a cathode, wherein magnesium metal is recovered. (a) leaching the magnesium-bearing ores with HCI obtaining a slurry comprising magnesium chloride; (b) filtrating the slurry to obtain a magnesium chloride solution and a silica by-product; (c) purifying the magnesium chloride solution by increasing the pH adding a neutralizing agent and an oxidizing agent; (d) separating iron residues from the magnesium chloride solution; (e) recuperating nickel contained in the magnesium chloride solution by increasing a second time the pH by adding a base and recovering a nickel rich fraction by filtration; (f) adding an oxidizing agent and increasing the pH a third time of the magnesium chloride solution by adding a base and precipitating residual metallic impurities; (g) adding a neutral salt to said magnesium chloride solution precipitating sulfate ions from said magnesium chloride solution and separating metal impurities and sulfates from said magnesium chloride solution producing a pure magnesium brine; (h) evaporating water from the magnesium brine and recovering MgCl 2 •6H 2 O by crystallization using dry gaseous hydrogen chloride; (i) dehydrating the MgCl 2 •6H 2 O to obtain anhydrous magnesium chloride; and (j) electrolizing the anhydrous magnesium chloride in an electrolytic cell, containing an anode and a cathode, wherein magnesium metal is recovered.
A hydraulic steering comprising a hydraulic pressure supply port, a low pressure port, a steering unit valve, a switch valve, a hydraulic steering valve, a steering motor and a manual steering section, wherein the steering motor is supplied with pressurized hydraulic fluid by the hydraulic steering valve if the switch valve is in a first switch valve position, and wherein the steering motor is supplied with pressurized hydraulic fluid by the manual steering section via the steering unit valve if the switch valve is in a second switch valve position, at least one pressure sensor (7, 8) is connected to the steering unit valve, wherein at least one pressure sensor (7, 8) detects a pressure change in the steering unit valve due to a change in steering in the manual steering section, characterized in that the hydraulic steering comprises a control unit, wherein the control unit processes the pressure signal from the at least one pressure sensor (7, 8) by signal treatment with a filter wherein the unfiltered signal is compared to the sum of the filtered signal and a threshold parameter.
An apparatus comprising: a curing unit to heat an area of a print substrate in a substrate travel path, the curing unit having a width less than a width of the substrate travel path; and a controller to reciprocate the curing unit, characterised in that the controller is configured to determine, or to receive information of, the width of the print substrate, and to reciprocate the curing unit within the print substrate width based on the determined width of the print substrate or the received information. a curing unit to heat an area of a print substrate in a substrate travel path, the curing unit having a width less than a width of the substrate travel path; and a controller to reciprocate the curing unit, characterised in that the controller is configured to determine, or to receive information of, the width of the print substrate, and to reciprocate the curing unit within the print substrate width based on the determined width of the print substrate or the received information.
A before-use mixing container comprising: - an adapter having an apical wall, an outer tube installed vertically from the apical wall, and an inner tube capable of containing a medicinal solution therein; - a container main body having a mouth tube section fit at an inside of the outer tube of the adapter, to be assembled so as not to be rotatable with respect to the adapter; - a guide cap having a fit-in tube section into which the outer tube of the adapter is pressed to fit at an inside, to be assembled so as to be rotatable with respect to the adapter; - a cap mounted onto the guide cap so as to be freely removable; and a movable plug that tightly plugs a lower end opening portion of the inner tube of the adapter, wherein the movable plug has an airtight-cap section for tightly plugging the lower end opening portion of the inner tube of the adapter, and an axial body which is extended upward from the airtight-cap section and is inserted through a rotation restricting hole for restricting a circumferential rotation, which is formed in the adapter, and moreover, in a state in which a leading end portion of the axial body is brought into contact with an extracting hole formed in the guide cap, an end portion of the axial body is screwed in an axial body mounting section provided inside the guide cap. - an adapter having an apical wall, an outer tube installed vertically from the apical wall, and an inner tube capable of containing a medicinal solution therein; - a container main body having a mouth tube section fit at an inside of the outer tube of the adapter, to be assembled so as not to be rotatable with respect to the adapter; - a guide cap having a fit-in tube section into which the outer tube of the adapter is pressed to fit at an inside, to be assembled so as to be rotatable with respect to the adapter; - a cap mounted onto the guide cap so as to be freely removable; and a movable plug that tightly plugs a lower end opening portion of the inner tube of the adapter, wherein the movable plug has an airtight-cap section for tightly plugging the lower end opening portion of the inner tube of the adapter, and an axial body which is extended upward from the airtight-cap section and is inserted through a rotation restricting hole for restricting a circumferential rotation, which is formed in the adapter, and moreover,