mhurhangee/ep-ind-claims huggingface dataset:
A fan drive gear system comprising; a geared architecture including gears supported by bearing structures for providing a speed change between an input and output; a lubricant manifold defining a first lubricant passage and a second lubricant passage; a first filter element for filtering lubricant flow to the first lubricant passage; and a second filter element for filtering lubricant flow to the second lubricant passage; characterised in that: the first filter element provides a first resistance to lubricant flow and the second filter element provides a second resistance to lubricant flow that is less than the first resistance.
A method for regulating biosynthesis of at least one C7 building block chosen from pimelic acid, 7-aminoheptanoic acid, 7-hydroxyheptanoic acid, heptamethylenediamine, 7-aminoheptanol and 1,7-heptanediol in a recombinant host by fermentation using a pathway having a pimeloyl-ACP intermediate, said method comprising the step of downregulating the activity of BioF; and the step of overexpressing BioW and a CoA-specific BioF; wherein said BioW enzymatically converts pimelic acid to pimeloyl-CoA and wherein said BioW is a pimeloyl-CoA ligase having at least 70% sequence identity or homology to the amino acid sequence set forth in SEQ ID NO: 18; and wherein said CoA-specific BioF enzymatically converts pimeloyl-CoA to 8-amino-7-oxo-nonanoic acid and wherein said CoA-specific BioF is a 8-amino-7-oxononanoate synthase having at least 70% sequence identity or homology to the amino acid sequence set forth in SEQ ID NO: 19; wherein the recombinant host is a prokaryote chosen from the genii Escherichia, Clostridia, Corynebacteria, Cupriavidus, Pseudomonas, Dwelftia acidovorans, Bacillus, Lactobacillus, Lactococcus, or Rhodococcus or wherein the recombinant host is a eukaryote chosen from the genii Aspergillus, Saccharomyces,Pichia, Yarrowia, Issatchenkia, Debaryomyces, Arxula, or Kluyveromyces; and wherein the downregulation of the activity of BioF occurs through one or more of transposons, homologous recombination (double cross-over approach), mutagenesis, enzyme inhibitors and RNA interference (RNAi). the step of downregulating the activity of BioF; and the step of overexpressing BioW and a CoA-specific BioF; wherein said BioW enzymatically converts pimelic acid to pimeloyl-CoA and wherein said BioW is a pimeloyl-CoA ligase having at least 70% sequence identity or homology to the amino acid sequence set forth in SEQ ID NO: 18; and wherein said CoA-specific BioF enzymatically converts pimeloyl-CoA to 8-amino-7-oxo-nonanoic acid and wherein said CoA-specific BioF is a 8-amino-7-oxononanoate synthase having at least 70% sequence identity or homology to the amino acid sequence set forth in SEQ ID NO: 19; wherein the recombinant host is a prokaryote chosen from the genii Escherichia, Clostridia, Corynebacteria, Cupriavidus, Pseudomonas, Dwelftia acidovorans, Bacillus, Lactobacillus, Lactococcus, or Rhodococcus or wherein the recombinant host is a eukaryote chosen from the genii Aspergillus, Saccharomyces,Pichia, Yarrowia, Issatchenkia, Debaryomyces, Arxula, or Kluyveromyces; and wherein the downregulation of the activity of BioF occurs through one or more of transposons, homologous recombination (double cross-over approach), mutagenesis, enzyme inhibitors and RNA interference (RNAi).
Test bench configured to test a drag damper, characterised in that the test bench comprises a first support capable of being rotated about a first axis of rotation by a motor, the test bench comprising a second support rotatable about a second axis, the second axis being offset axially in respect of the first axis, the test bench comprising a first connector secured to the first support and a second connector secured to the second support, the first connector and the second connector being offset from the first axis and second axis, the first connector and the second connector being opposite each other along an arrangement axis (AXAMORT) and being configured to carry said damper along said arrangement axis (AXAMORT).
A method for the connection of a mobile communication terminal to a communications infrastructure that is at least partially wire-based, comprising the following steps: - wireless transfer from the communication terminal to a docking station of a certificate containing authorization information, - forwarding of the certificate from the docking station to a validation service, - validation of the certificate by the validation service, regarding whether the communication terminal is authorized to communicate with the communications infrastructure, - if the authorization is present, sending the data required for establishing a wireless P2P link from the communication terminal to the docking station and establishing, by means of the docking station, a first P2P communication link to the communication terminal via WLAN, followed by interconnecting, by means of a transfer device in the docking station, the first P2P communication link to a second, wired communication link, wherein the second, wired communication link is linked with the communications infrastructure, wherein the interconnection is established by means of an application layer gateway firewall at the docking station for blocking malware or undesired software in the communications infrastructure. - wireless transfer from the communication terminal to a docking station of a certificate containing authorization information, - forwarding of the certificate from the docking station to a validation service, - validation of the certificate by the validation service, regarding whether the communication terminal is authorized to communicate with the communications infrastructure, - if the authorization is present, sending the data required for establishing a wireless P2P link from the communication terminal to the docking station and establishing, by means of the docking station, a first P2P communication link to the communication terminal via WLAN, followed by interconnecting, by means of a transfer device in the docking station, the first P2P communication link to a second, wired communication link, wherein the second, wired communication link is linked with the communications infrastructure, wherein the interconnection is established by means of an application layer gateway firewall at the docking station for blocking malware or undesired software in the communications infrastructure.
A method for the selective crystallization of 9-{ -2-[( -{[ -1-(isopropoxycarbonyl)ethyl]amino}phenoxyphosphinyl)methoxy]propyl}adenine comprising the step of: treating a solution comprising (a) a suitable solvent comprising an aprotic organic solvent and (b) 9-{ -2-[((R,S)-{[ -1-(isopropoxycarbonyl)ethyl]amino}phenoxyphosphinyl)methoxy]propyl}adenine, with a base selected from: 1,5 diazobicyclo[4.3.0]non-5-ene; 1,8 diazabicyclo[5.4.0]undec-7-ene; 7 methyl-1,5,7-triazabicyclo[4.4.0]dec-5-ene; tetramethylguanidine; a Verkade base; a metal carbonate; a metal phenoxide; or PhOTMS in combination with a fluoride ion source; or a mixture thereof. treating a solution comprising (a) a suitable solvent comprising an aprotic organic solvent and (b) 9-{ -2-[((R,S)-{[ -1-(isopropoxycarbonyl)ethyl]amino}phenoxyphosphinyl)methoxy]propyl}adenine, with a base selected from: 1,5 diazobicyclo[4.3.0]non-5-ene; 1,8 diazabicyclo[5.4.0]undec-7-ene; 7 methyl-1,5,7-triazabicyclo[4.4.0]dec-5-ene; tetramethylguanidine; a Verkade base; a metal carbonate; a metal phenoxide; or PhOTMS in combination with a fluoride ion source; or a mixture thereof.
A resonant converter including an input for connection to a substantially direct current electrical supply (Vd), a resonant circuit, first switching means to selectively provide current from the input to the resonant circuit, second switching means (S1, S2) associated with a reactive element (Lv, Cv) of the resonant circuit, switch control means operable to control the second switching means (S1, S2) to vary the effective reactance of the reactive element (Lv, Cv), characterised in that phase sensing means sense the phase of a voltage in the resonant circuit whereby the control means may actuate the second switching means (S1, S2) to allow the reactive element (Lv, Cv) to be electrically connected to or disconnected from the resonant circuit a predetermined time period after the phase sensing means senses a voltage zero crossing to vary the effective reactance of the reactive element (Lv, Cv) and thereby vary the resonant frequency of the resonant circuit.
A high-strength hot-rolled steel strip or sheet with a tensile strength of 780 MPa or higher with continuous yielding behaviour and an excellent combination of total elongation, stretch-flange formability, and fatigue resistance, consisting of in wt.%: • between 0.05 and 0.15% C; • between 1.0 and 2.0% Mn; • between 0.05 and 0.7% Mo; • between 0.10 and 0.40% V; • between 0.1 and 1.2% Cr; • optionally one or more of - at least 0.01 and at most 0.14% Ti; - at least 0.01 and at most 0.10% Nb; • at least 0.05 and most 0.5% Si; • at most 0.04% P; • at most 0.008% S; • at most 0.1% Al_sol; • at most 0.020% N; • at most 0.003% B; • optionally Ca in an amount consistent with a calcium treatment for inclusion control; • balance Fe and inevitable impurities; wherein the steel strip or sheet has a microstructure that contains a matrix consisting of a mixture of polygonal ferrite and bainitic ferrite and at least 0.5 vol.% and at most 5 vol. % of ∑ (martensite and retained-austenite), wherein the PF and BF is precipitation-strengthened with fine composite carbides and/or carbo-nitrides of V and/or of Mo and optionally of Ti and/or of Nb, with a yield ratio of at least 0.7 and a hole-expansion ratio (λ) of 40% or higher. • between 0.05 and 0.15% C; • between 1.0 and 2.0% Mn; • between 0.05 and 0.7% Mo; • between 0.10 and 0.40% V; • between 0.1 and 1.2% Cr; • optionally one or more of - at least 0.01 and at most 0.14% Ti; - at least 0.01 and at most 0.10% Nb; - at least 0.01 and at most 0.14% Ti; - at least 0.01 and at most 0.10% Nb; • at least 0.05 and most 0.5% Si; • at most 0.04% P; • at most 0.008% S; • at most 0.1% Al_sol; • at most 0.020% N; • at most 0.003% B; • optionally Ca in an amount consistent with a calcium treatment for inclusion control; • balance Fe and inevitable impurities;
A flying spot forming apparatus, comprising a radiation source and a shielding body which is a hollow circular cylinder and has a side wall provided with helical grooves in pairs, with each pair of helical grooves comprising an incident groove and an exit groove, wherein, the side wall of the shielding body is provided with at least two pairs of helical grooves, and each helical groove has a predetermined slope with respect to a cross section of the shielding body; a first incident groove of the at least two pairs of helical grooves, is adjacent to a second incident groove of the at least two pairs of helical grooves, a head end of the first incident groove is higher than a head end of the second incident groove, a tail end of the first incident groove is higher than a tail end of the second incident groove, the tail end of the first incident groove is spaced apart from the head end of the second incident groove by a predetermined distance, the tail end of the first incident groove is not higher than the head end of the second incident groove; a first axial cross section of the shielding body intersects with the tail end of the first incident groove, a second axial cross section intersects with the head end of the second incident groove, and an included angle between the first and second axial cross sections is greater than 0 degree; and the position of the exit groove of the at least two pairs of helical grooves corresponds to the position of the incident groove arranged in pair with said exit groove.
Painting process (2, 2') of one or more substrates, including one or more body parts of a motor vehicle, the process comprising the steps in the following order: (a) application of a first base (3, 3') with pigments; (b) application of a second base (4, 4') with pigments (6, 6'); (c) application of a varnish (8,8') containing texturing elements; characterized by the fact that the pigments of the first base (3, 3') are exclusively tinting and the pigments (6, 6') of the second base (4, 4') include effect pigments, and that the second base (4, 4') is directly applied on the first base (3, 3'), and the varnish (8, 8') directly on the second base (4, 4'). (a) application of a first base (3, 3') with pigments; (b) application of a second base (4, 4') with pigments (6, 6'); (c) application of a varnish (8,8') containing texturing elements;
A surface element comprising: a. a recycled polyurethane; and b. a glycol or polyol additive, wherein the surface element has an increased tearability as compared to a tearability of the recycled polyurethane and the tearability is measured according to ASTM D1004. a. a recycled polyurethane; and b. a glycol or polyol additive, wherein the surface element has an increased tearability as compared to a tearability of the recycled polyurethane and the tearability is measured according to ASTM D1004.
A flexible package (100; 300; 400) in which at least a first side-surface film and a second side-surface film are joined together, and peripheral portions of the films are sealed to form a storage part, wherein on one or both of two side edge portions which are sealed regions of the peripheral portions at both side ends of the first side-surface film and the second side-surface film, a non-sealed region is provided which is a region in which the first side-surface film and the second side-surface film are not sealed over a predetermined length, the non-sealed region being surrounded by the sealed regions of the first side-surface film and the second side-surface film, characterized in that in the non-sealed region, a gas injection portion is formed in which a gas whose specific heat at constant volume is 0.67 kJ/kg·deg or higher at 0°C and 1 atm, the gas injection portion has a diameter not smaller than 3 mm but not larger than 50 mm, and a repelling force measured when the entirety of the gas injection portion is nipped from the first side-surface film side and the second side-surface film side and squeezed until the width of the nipped gas injection portion becomes half the diameter of the gas injection portion, is not smaller than 4 N but not larger than 30 N at 23°C and 1 atm, wherein in the side edge portions, a cut guide portion is formed at a position near the gas injection portion so as to extend from the position to the gas injection portion, the cut guide portion guiding cutting of the first side-surface film and the second side-surface film. on one or both of two side edge portions which are sealed regions of the peripheral portions at both side ends of the first side-surface film and the second side-surface film, a non-sealed region is provided which is a region in which the first side-surface film and the second side-surface film are not sealed over a predetermined length, the non-sealed region being surrounded by the sealed regions of the first side-surface film and the second side-surface film, characterized in that in the non-sealed region, a gas injection portion is formed in which a gas whose specific heat at constant volume is 0.67 kJ/kg·deg or higher at 0°C and 1 atm, the gas injection portion has a diameter not smaller than 3 mm but not larger than 50 mm, and a repelling force measured when the entirety of the gas injection portion is nipped from the first side-surface film side and the second side-surface film side and squeezed until the width of the nipped gas injection portion becomes half the diameter of the gas injection portion, is not smaller than 4 N but not larger than 30 N at 23°C and 1 atm,
A children's bouncer device comprising: a base configured to support the device on a support surface; a child-supporting portion supported above the base and configured to support a child; and at least one non-metal resilient biasing element operatively engaged between the base and the child-supporting portion to allow a bouncing motion of the child-supporting portion relative to the base, wherein the resilient biasing element comprises a body formed of a polymeric elastomer material, the body comprising a first side attached to the base, a second side attached to the child supporting portion, and at least one interconnecting member extending between the first side and the second side, wherein the at least one interconnecting member elastically and resiliently deforms and imparts a counter-biasing force on the child-supporting portion in response to the bouncing motion, characterised in that the resilient biasing element comprises a panel of the polymeric elastomer material defining a plurality of openings and forming a spaced array of support struts (72, 74, 76). a base configured to support the device on a support surface; a child-supporting portion supported above the base and configured to support a child; and at least one non-metal resilient biasing element operatively engaged between the base and the child-supporting portion to allow a bouncing motion of the child-supporting portion relative to the base, wherein the resilient biasing element comprises a body formed of a polymeric elastomer material, the body comprising a first side attached to the base, a second side attached to the child supporting portion, and at least one interconnecting member extending between the first side and the second side, wherein the at least one interconnecting member elastically and resiliently deforms and imparts a counter-biasing force on the child-supporting portion in response to the bouncing motion, characterised in that the resilient biasing element comprises a panel of the polymeric elastomer material defining a plurality of openings and forming a spaced array of support struts (72, 74, 76).
A handle device which is prepared for being arranged on a surgical light, comprising a grip element which forms a grip surface at an outer area, characterized in that a sensor module is detachably connected to the grip element, wherein the sensor module includes a pluraltiy of distance sensors each of which is designed for detecting a position of an object and are directed away from each other with central axes of their operating range.
A metal sub-miniature fastener comprising a patch prepared from a fastener retention material comprising a nylon 11 powder having a median average particle size by volume of more than 67 and less than 80 micrometers, wherein such a sub-miniature fastener is a threaded fastener having a diameter from furthest points on the thread of less than mm wherein the median average particle size by volume is measured by Malvern Instruments Mastersizer 2000 version 5.60, and the diameter from the furthest points on the thread of the sub-miniature fastener is determined according to international standard lSO 68-1.
A crystal oscillator (30, 50, 80), comprising: a crystal oscillator core circuit, configured to generate a sinusoidal wave; a bias resistor (Rbias); a bias circuit, coupled to an output terminal of the crystal oscillator core circuit through the bias resistor (Rbias), the bias circuit configured to provide a bias voltage of the sinusoidal wave; a pulse wave buffer, coupled to the output terminal of the crystal oscillator core circuit, the pulse wave buffer configured to generate a pulse wave according to the sinusoidal wave; and a phase noise reduction circuit, coupled to the output terminal of the crystal oscillator core circuit, the phase noise reduction circuit configured to reset phase noise on the bias voltage of the sinusoidal wave caused by the bias resistor (Rbias), characterized in that the phase noise reduction circuit includes a reset switch, wherein the reset switch is coupled to the output terminal of the crystal oscillator core circuit, and wherein the phase noise reduction circuit is configured to generate a reset signal to turn on the reset switch and thereby reset the phase noise by resetting the bias voltage of the sinusoidal wave to a reset level. a crystal oscillator core circuit, configured to generate a sinusoidal wave; a bias resistor (Rbias); a bias circuit, coupled to an output terminal of the crystal oscillator core circuit through the bias resistor (Rbias), the bias circuit configured to provide a bias voltage of the sinusoidal wave; a pulse wave buffer, coupled to the output terminal of the crystal oscillator core circuit, the pulse wave buffer configured to generate a pulse wave according to the sinusoidal wave; and a phase noise reduction circuit, coupled to the output terminal of the crystal oscillator core circuit, the phase noise reduction circuit configured to reset phase noise on the bias voltage of the sinusoidal wave caused by the bias resistor (Rbias), characterized in that the phase noise reduction circuit includes a reset switch, wherein the reset switch is coupled to the output terminal of the crystal oscillator core circuit, and wherein the phase noise reduction circuit is configured to generate a reset signal to turn on the reset switch and thereby reset the phase noise by resetting the bias voltage of the sinusoidal wave to a reset level.
A method for operating an internal combustion engine operating at least partly on gaseous fuel, and that has a main combustion chamber and at least one pre-combustion chamber assembly with a pre-combustion chamber in fluid communication with the at least one main combustion chamber via at least one flow transfer passage, a gaseous fuel supply channel for supplying gaseous fuel into the pre-combustion chamber, and an ignition fuel injector for supplying liquid ignition fuel into the pre-combustion chamber for initiating an ignition event within the pre-combustion chamber, the method comprising: supplying a predefined amount of gaseous fuel into the pre-combustion chamber via the at least one gaseous fuel supply channel for enriching the pre-combustion chamber with gaseous fuel at times between about 210° crankangle before the top dead center and about 180° crankangle after the top dead center during an exhaust stroke and an intake stroke of the internal combustion engine; and supplying a predefined amount of liquid ignition fuel into the gaseous fuel enriched pre-combustion chamber via the at least one ignition fuel injector. supplying a predefined amount of gaseous fuel into the pre-combustion chamber via the at least one gaseous fuel supply channel for enriching the pre-combustion chamber with gaseous fuel at times between about 210° crankangle before the top dead center and about 180° crankangle after the top dead center during an exhaust stroke and an intake stroke of the internal combustion engine; and supplying a predefined amount of liquid ignition fuel into the gaseous fuel enriched pre-combustion chamber via the at least one ignition fuel injector.
A riding lawn mower comprising: a mower for mowing grass provided below the front part of a running vehicle body and in front of front wheels (2, 2) and comprising a cutting blade; a collector provided at the rear part of the vehicle body and configured to accommodate mowed grass; and a cockpit provided on the front side of the vehicle body, wherein a safety guard surrounding the cockpit is provided between the cockpit and the collector, and wherein a net guard is provided in a space between left and right struts (15L, 15R) of the safety guard, characterized in that the net guard is pivotably provided in a posture that does not hinder the folding pivot of a head frame of the safety guard. a mower for mowing grass provided below the front part of a running vehicle body and in front of front wheels (2, 2) and comprising a cutting blade; a collector provided at the rear part of the vehicle body and configured to accommodate mowed grass; and a cockpit provided on the front side of the vehicle body, wherein a safety guard surrounding the cockpit is provided between the cockpit and the collector, and wherein a net guard is provided in a space between left and right struts (15L, 15R) of the safety guard, characterized in that the net guard is pivotably provided in a posture that does not hinder the folding pivot of a head frame of the safety guard.