mhurhangee/ep-ind-claims huggingface dataset:
A vessel gas system for providing an internal combustion engine with gaseous fuel, the vessel gas system comprising: a fuel gas storage unit with a master gas valve; a double walled fuel supply storage line; a double walled gas valve unit; a double walled fuel supply engine line; and a gaseous fuel system; wherein the double walled gas valve unit comprises a housing providing an outer wall of the double walled gas valve unit and comprising a fuel gas inlet, a fuel gas outlet, and an inert gas inlet, a fuel line fluidly connected to the fuel gas inlet and the fuel gas outlet and extending within the housing, thereby forming an inner wall of the double walled gas valve unit, wherein the fuel line comprises a flow control valve and a block valve, a flushing line, and a flushing valve system, wherein the flushing line is fluidly connected to the inert gas inlet, the flushing line is fluidly connected via the flushing valve system to a storage side access point of the fuel line and to an engine side access point (25B, 25B') of the fuel line, and the storage side access point is fluidly positioned between the fuel gas inlet and the block valve and the engine side access point (25B, 25B') is fluidly positioned between the block valve and the fuel gas outlet; and the fuel gas inlet of the fuel line of the double walled gas valve unit is fluidly connected with the master gas valve of the fuel gas storage unit via the double walled fuel supply storage line and the fuel gas outlet of the fuel line of the double walled gas valve unit is fluidly connected with the gaseous fuel system via the double walled fuel supply engine line. a fuel gas storage unit with a master gas valve; a double walled fuel supply storage line; a double walled gas valve unit; a double walled fuel supply engine line; and a gaseous fuel system; wherein the double walled gas valve unit comprises a housing providing an outer wall of the double walled gas valve unit and comprising a fuel gas inlet, a fuel gas outlet, and an inert gas inlet, a fuel line fluidly connected to the fuel gas inlet and the fuel gas outlet and extending within the housing, thereby forming an inner wall of the double walled gas valve unit, wherein the fuel line comprises a flow control valve and a block valve, a flushing line, and a flushing valve system, wherein the flushing line is fluidly connected to the inert gas inlet, the flushing line is fluidly connected via the flushing valve system to a storage side access point of the fuel line and to an engine side access point (25B, 25B') of the fuel line, and the storage side access point is fluidly positioned between the fuel gas inlet and the block valve and the engine side access point (25B, 25B') is fluidly positioned between the block valve and the fuel gas outlet; and the fuel gas inlet of the fuel line of the double walled gas valve unit is fluidly connected with the master gas valve of the fuel gas storage unit via the double walled fuel supply storage line and the fuel gas outlet of the fuel line of the double walled gas valve unit is fluidly connected with the gaseous fuel system via the double walled fuel supply engine line.
A fiber preform for a vane module of an intermediate casing of a turbine engine, the preform being obtained by three-dimensional weaving and being characterized in that it is devoid of non-interlinked zone and comprises: a first longitudinal segment presenting opposite first and second ends and suitable for forming a first vane; a second longitudinal segment presenting first and second opposite ends and suitable for forming a second vane; and a first transverse segment connecting together the first and second longitudinal segments (41, 42) by their first ends, and suitable for forming a first transverse vane portion such as a flange or a platform. a first longitudinal segment presenting opposite first and second ends and suitable for forming a first vane; a second longitudinal segment presenting first and second opposite ends and suitable for forming a second vane; and a first transverse segment connecting together the first and second longitudinal segments (41, 42) by their first ends, and suitable for forming a first transverse vane portion such as a flange or a platform.
A tracking tachograph comprising a microprocessor arithmetic device intended for processing of information coming from sensors, a memory device for storing information, a power supply, a display for visualizing operative information, a push-button panel for controlling work modes, a wheel-mounted sensor of an anti-lock brake system for detecting start of vehicle movement, a printing device and a first and a second I/O devices for insertion/removal of cards with an electronic chip for storing operating information accumulated during vehicle movement and identifying an operating driver, a GLONASS/GPS/GALILEO satellite navigation receiver, a GLONASS/GPS/GALILEO antenna, a connector for the GLONASS / GPS / GALILEO antenna, a 3.3 V stabilizer, a GSM/GPRS modem, a SIM-card, and a GSM antenna, the tachograph is further provided with a first I/O port of a standard UART interface to the GSM/GPRS modem and a second I/O port of a standard UART interface to the satellite navigation receiver for data exchanges, and a GSM connector, the said microprocessor receives navigation information and is synchronized with the UTC time contained in a data-exchange protocol used by the GLONASS/GPS/GALILEO satellite navigation systems, and with an accelerometer as an additional information source, which is arranged on a printed-circuit board within the tracking tachograph housing, the output of an input power connector being connected to the input of the tracking tachograph power supply which power output is connected to the power inputs of the 3.3 V stabilizer, the power inputs of the display, a slot of the first I/O device, a slot of the second I/O device, the accelerometer, the GSM/GPRS modem, the memory device and the microprocessor, the microprocessor being connected to the accelerometer, to the inputs of the display, to the push-button panel, to the printing device, to the slot of the first I/O device, to the slot of the second I/O device, to the first I/O port of a standard UART interface, which in turn is connected to the GSM/GPRS modem and, via the latter and the GSM connector, to the GSM antenna, the microprocessor also connected to the second I/O port of a standard UART interface loaded on the GLONASS/GPS/GALILEO satellite navigation receiver module, and to the wheel-mounted sensor of the anti-lock brake system; and a power output of the 3.3 V stabilizer is connected to the power input of the GLONASS/GPS/GALILEO satellite navigation receiver and, via the GLONASS/GPS/GALILEO connector, supplies power to the GLONASS/GPS/GALILEO antenna.
An end cap for a tubular light source, the tubular light source being configured to be arranged in a lighting fixture comprising at least one socket, wherein the end cap comprises: a housing; two connector pins at least partly arranged on an outside of the housing and adapted to fit in the socket; and a switch assembly comprising a switch element arranged in between the two connector pins and at least partly protruding from an opening in the housing, characterized in that a first side of the switch element is adapted to fit into a slot in the at least one socket and characterized in that the switch element comprises an embedded conductive element (202, 300) configured to form a conductive path between the connector pins and the tubular light source through an axial rotation of the switch element in relation to the housing as the tubular light source is rotatably mounted in the fixture. a housing; two connector pins at least partly arranged on an outside of the housing and adapted to fit in the socket; and a switch assembly comprising a switch element arranged in between the two connector pins and at least partly protruding from an opening in the housing, characterized in that a first side of the switch element is adapted to fit into a slot in the at least one socket and characterized in that the switch element comprises an embedded conductive element (202, 300) configured to form a conductive path between the connector pins and the tubular light source through an axial rotation of the switch element in relation to the housing as the tubular light source is rotatably mounted in the fixture.
A camera mounting device, comprising: a chassis having a front surface and a rear surface; a shoe mountable to the front surface of the chassis and including a fastener configured to securely fasten the shoe to a camera; and a quick release actuator configured to lock and release the shoe from the chassis; characterized by: a back plate; and two cinching screws on the extremities of the device for cinching a strap or belt of undetermined thickness between the back plate and the chassis, wherein the cinching screws, when tightened, cause the strap or belt to be securely sandwiched between the chassis and the back plate, and wherein the cinching screws are configured such that one of the cinching screws can be unscrewed enough turns, while still screwed to the back plate, to elevate the head of the one of the cinching screws above a cutaway in the chassis and allow the chassis to be swiveled about a pivot point provided by the other one of the cinching screws, thereby allowing the strap or belt to be positioned between the chassis and the back plate. a chassis having a front surface and a rear surface; a shoe mountable to the front surface of the chassis and including a fastener configured to securely fasten the shoe to a camera; and a quick release actuator configured to lock and release the shoe from the chassis; characterized by: a back plate; and two cinching screws on the extremities of the device for cinching a strap or belt of undetermined thickness between the back plate and the chassis, wherein the cinching screws, when tightened, cause the strap or belt to be securely sandwiched between the chassis and the back plate, and wherein the cinching screws are configured such that one of the cinching screws can be unscrewed enough turns, while still screwed to the back plate, to elevate the head of the one of the cinching screws above a cutaway in the chassis and allow the chassis to be swiveled about a pivot point provided by the other one of the cinching screws, thereby allowing the strap or belt to be positioned between the chassis and the back plate. a back plate; and two cinching screws on the extremities of the device for cinching a strap or belt of undetermined thickness between the back plate and the chassis, wherein the cinching screws, when tightened, cause the strap or belt to be securely sandwiched between the chassis and the back plate, and wherein the cinching screws are configured such that one of the cinching screws can be unscrewed enough turns, while still screwed to the back plate, to elevate the head of the one of the cinching screws above a cutaway in the chassis and allow the chassis to be swiveled about a pivot point provided by the other one of the cinching screws, thereby allowing the strap or belt to be positioned between the chassis and the back plate.
An automated method for evaluating a sepsis status associated with a blood sample obtained from an individual, the method comprising: determining a standard deviation of monocyte volume associated with the blood sample; determining a white blood cell count associated with the blood sample; evaluating, using a data processing module, the sepsis status associated with the blood sample; and altering a test reporting process based on the evaluation of the sepsis status wherein the data processing module comprises a processor and a tangible non-transitory computer readable medium, and the computer readable medium is programmed with a computer application that, when executed by the processor, causes the processor to compare the standard deviation of monocyte volume to a first cutoff value to provide a first comparison, to compare the WBC to a second cutoff value and a third cutoff value to provide a second comparison, and to evaluate the sepsis status associated with the blood sample based on the first comparison and the second comparison. determining a standard deviation of monocyte volume associated with the blood sample; determining a white blood cell count associated with the blood sample; evaluating, using a data processing module, the sepsis status associated with the blood sample; and altering a test reporting process based on the evaluation of the sepsis status wherein the data processing module comprises a processor and a tangible non-transitory computer readable medium, and the computer readable medium is programmed with a computer application that, when executed by the processor, causes the processor to compare the standard deviation of monocyte volume to a first cutoff value to provide a first comparison, to compare the WBC to a second cutoff value and a third cutoff value to provide a second comparison, and to evaluate the sepsis status associated with the blood sample based on the first comparison and the second comparison.
An electrically powered rotary-wing aircraft comprising: a first predetermined number of thrust producing units (103a, 103b), wherein each one of the first predetermined number of thrust producing units (103a, 103b) comprises: a rotor, and an electrical drive unit with at least two electric motors (380, 383) for driving the rotor; and a second predetermined number of batteries (410a,410b) for providing electricity to the at least two electric motors (380, 383) of the first predetermined number of thrust producing units (103a, 103b); characterized in that the first and second predetermined numbers are greater than one, each battery of the second predetermined number of batteries (410a,410b) is coupled to at most one electric motor of the at least two electric motors (380, 383) of any one of the first predetermined number of thrust producing units (103a, 103b) and to at least two different electric motors of the at least two electric motors (380, 383) of at least two different thrust producing units of the first number of thrust producing units (103a, 103b), and wherein each electric motor (380, 383) of the at least one of the first predetermined number of thrust producing units (103a, 103b) is coupled to at most one of the second predetermined number of batteries (410a,410b). a first predetermined number of thrust producing units (103a, 103b), wherein each one of the first predetermined number of thrust producing units (103a, 103b) comprises: a rotor, and an electrical drive unit with at least two electric motors (380, 383) for driving the rotor; and a rotor, and an electrical drive unit with at least two electric motors (380, 383) for driving the rotor; and a second predetermined number of batteries (410a,410b) for providing electricity to the at least two electric motors (380, 383) of the first predetermined number of thrust producing units (103a, 103b);
A β-sialon phosphor powder in which Eu (europium) is solid-soluted in a crystal having a β-type Si 3 N 4 crystal structure, which is represented by the formula Si 6-z Al z O z N 8-z: Eu x with 0.3 ≤ z ≤1.0 and 0.005 < x < 0.08), wherein the median diameter (D 50) in the particle size distribution curve of the phosphor powder is from 3.0 to 10 μm, wherein the phosphor powder consists of phosphor particles having a maximum aspect ratio of the primary particles not exceeding 2, and wherein the phosphor powder comprises phosphor particles having an aspect ratio of less than 1.5.
A method for updating a security key at a base station, comprising: transmitting a handover command from the base station to a mobile station; incrementing a base station instance of an authentication key counter at the base station; calculating a new local authentication key (AK*) at the base station using the base station instance of the authentication key counter and an authentication key, wherein the AK is previously obtained from an authenticator; and communicating by the base station with the mobile station using the new local authentication key after a predetermined action time. transmitting a handover command from the base station to a mobile station; incrementing a base station instance of an authentication key counter at the base station; calculating a new local authentication key (AK*) at the base station using the base station instance of the authentication key counter and an authentication key, wherein the AK is previously obtained from an authenticator; and communicating by the base station with the mobile station using the new local authentication key after a predetermined action time.
A shaving unit comprising: - a rotary cutter (30, 130) comprising a plurality of cutter blades (62, 162) that are provided with a cutting edge (64, 164), the rotary cutter (30, 130) being arranged to rotate about a rotation axis (26, 126) in a direction of movement (36, 136); and - a guard cap (28, 128) comprising an annular shaving track (44, 144) surrounding the rotation axis (26, 126) for cooperation with the cutter blades (62, 162), the shaving track (44, 144) being provided with hair-entry slots (46, 146) that, seen in the direction of movement (36, 136), have a frontal edge (48, 148) and a rear edge (50, 150); wherein the frontal edges (48, 148) of the hair-entry slots (46, 146) are, in a cutting portion (70, 170) along a long side extension of the hair-entry slots (46, 146), inclined with respect to a radial direction (96, 196) relative to the rotation axis (26, 126), wherein a slot angle (α) is defined as an angle of inclination of the frontal edges (48, 148) of the hair-entry slots (46, 146) with respect to the radial direction (96, 196); wherein a shearing angle (δ), defined as a difference between the slot angle (α) and an angle of inclination (β) of the cutting edges (64, 164) of the cutter blades (62, 162) with respect to the radial direction (96, 196), is in a range from +20° to -20°; and wherein the shearing angle (δ) is defined at an actual point where the frontal edges (48, 148) and the cutting edges (64, 164) cooperate characterized in that the slot angle (α) is in a range from 35° to 60°. - a rotary cutter (30, 130) comprising a plurality of cutter blades (62, 162) that are provided with a cutting edge (64, 164), the rotary cutter (30, 130) being arranged to rotate about a rotation axis (26, 126) in a direction of movement (36, 136); and - a guard cap (28, 128) comprising an annular shaving track (44, 144) surrounding the rotation axis (26, 126) for cooperation with the cutter blades (62, 162), the shaving track (44, 144) being provided with hair-entry slots (46, 146) that, seen in the direction of movement (36, 136), have a frontal edge (48, 148) and a rear edge (50, 150); wherein the frontal edges (48, 148) of the hair-entry slots (46, 146) are, in a cutting portion (70, 170) along a long side extension of the hair-entry slots (46, 146), inclined with respect to a radial direction (96, 196) relative to the rotation axis (26, 126), wherein a slot angle (α) is defined as an angle of inclination of the frontal edges (48, 148) of the hair-entry slots (46, 146) with respect to the radial direction (96, 196); wherein a shearing angle (δ), defined as a difference between the slot angle (α) and an angle of inclination (β) of the cutting edges (64, 164) of the cutter blades (62, 162) with respect to the radial direction (96, 196), is in a range from +20° to -20°; and wherein the shearing angle (δ) is defined at an actual point where the frontal edges (48, 148) and the cutting edges (64, 164) cooperate
A method for synthesizing a silica-based nanoformulation containing antibacterial and antifungal agents using a one-pot, acid-catalyzed, sol-gel process, comprising the steps of: selecting a reaction vessel containing an acidic reaction medium; adding tetraethoxysilane (TEOS), water, ethanol and an antibacterial or antifungal agent containing copper ions to the reaction vessel with the acidic medium to form mixture I; allowing the reaction of mixture I to continue for approximately one hour to facilitate the formation of a plurality of silica-based nanoparticles; adding a neutralizing agent after the formation of a plurality of nanoparticles to adjust the pH value of the reaction mixture to approximately 7.0; allowing the neutralized reaction of mixture I to continue for approximately 12 hours, preferably overnight, to allow gelation to occur, and form a nanogel structure consisting of interconnected nanoparticles; and collecting a porous silica-based nanogel having antibacterial and antifungal agents bound in a plurality of interconnected nanoparticles of the nanogel; wherein antibacterial or antifungal agent is a plurality of copper (Cu) ions sourced from a copper compound; characterized in that the plurality of interconnected nanoparticles of the nanogel contain - a plurality of Cu ions electrostatically bound to the nanoparticle core, - a plurality of embedded Cu nanocrystallites including at least Cu 2 O, - a plurality of Cu ions covalently bound to a silica matrix with a hydrated shell surface, nanopores of the nanoparticle and porous channels of nanogel, and - a plurality of Cu oxide/hydroxide as nanoclusters/nanoparticles bound to the surface of the nanoparticle. selecting a reaction vessel containing an acidic reaction medium; adding tetraethoxysilane (TEOS), water, ethanol and an antibacterial or antifungal agent containing copper ions to the reaction vessel with the acidic medium to form mixture I; allowing the reaction of mixture I to continue for approximately one hour to facilitate the formation of a plurality of silica-based nanoparticles; adding a neutralizing agent after the formation of a plurality of nanoparticles to adjust the pH value of the reaction mixture to approximately 7.0; allowing the neutralized reaction of mixture I to continue for approximately 12 hours, preferably overnight, to allow gelation to occur, and form a nanogel structure consisting of interconnected nanoparticles; and collecting a porous silica-based nanogel having antibacterial and antifungal agents bound in a plurality of interconnected nanoparticles of the nanogel; - a plurality of Cu ions electrostatically bound to the nanoparticle core, - a plurality of embedded Cu nanocrystallites including at least Cu 2 O, - a plurality of Cu ions covalently bound to a silica matrix with a hydrated shell surface, nanopores of the nanoparticle and porous channels of nanogel, and - a plurality of Cu oxide/hydroxide as nanoclusters/nanoparticles bound to the surface of the nanoparticle.
An actuation apparatus for actuating a switchable valve train component of an internal combustion engine, the apparatus comprising: a lever for contacting an actuation source and for contacting the switchable valve train component; and a biasing means; wherein the biasing means contacts the lever, and wherein, in use, the biasing means becomes biased by the lever when the actuation source moves the lever when the actuation source attempts to actuate the switchable valve train component, via the lever, when the switchable valve train component is in an un-activatable state, whereby the biasing means causes the lever to activate the switchable valve train component when the switchable valve train component is in an activatable state again. a lever for contacting an actuation source and for contacting the switchable valve train component; and a biasing means; wherein the biasing means contacts the lever, and wherein, in use, the biasing means becomes biased by the lever when the actuation source moves the lever when the actuation source attempts to actuate the switchable valve train component, via the lever, when the switchable valve train component is in an un-activatable state, whereby the biasing means causes the lever to activate the switchable valve train component when the switchable valve train component is in an activatable state again.