mhurhangee/ep-ind-claims huggingface dataset:
Rolling assembly comprising a towing vehicle, at least one trailer and an automatic system for coupling the trailer on the towing vehicle, - the towing vehicle is equipped with a first geolocation cell and with a first device for remote communication, - the trailer is equipped with a second geolocation cell, with a second device for remote communication, with elements for steering and braking, and with at least one motor for actuation of at least one wheel of the trailer, - the rolling assembly comprises at least one logic unit for calculation of the approach trajectory between the towing vehicle and the trailer, as a function of geolocation coordinates determined by the first and second geolocation cells (10, 14) and transmitted by the first and/or second communication devices (12, 16), said rolling assembly is characterised in that - the trailer is equipped with a unit for controlling the steering and braking elements and the actuation motor, as a function of the approach trajectory calculated by the logic unit. - the towing vehicle is equipped with a first geolocation cell and with a first device for remote communication, - the trailer is equipped with a second geolocation cell, with a second device for remote communication, with elements for steering and braking, and with at least one motor for actuation of at least one wheel of the trailer, - the rolling assembly comprises at least one logic unit for calculation of the approach trajectory between the towing vehicle and the trailer, as a function of geolocation coordinates determined by the first and second geolocation cells (10, 14) and transmitted by the first and/or second communication devices (12, 16), - the trailer is equipped with a unit for controlling the steering and braking elements and the actuation motor, as a function of the approach trajectory calculated by the logic unit.
A tubular joint, of the type comprising - a fitting end connected to a shaft, and - a spigot end that can be inserted into the fitting end and comprising a common portion, the fitting end also including a base body provided with a bottom groove with a fitting bottom, the fitting end further comprising a protection member positioned on the fitting bottom of the bottom groove and protecting that fitting bottom from contact with the spigot end, the protection member comprising an axial bottom stop and a skirt, wherein: - the base body is provided with a fitting groove, - the tubular joint comprises a sealing gasket, positioned in the fitting groove and applied against the spigot end and the fitting end, and - the skirt and the spigot end are suitable for allowing an angular deviation of the spigot end relative to the fitting end of at least 2°, preferably at least 3° and in particular at least 5°, when the spigot end is in partial contact with the axial bottom stop. - a fitting end connected to a shaft, and - a spigot end that can be inserted into the fitting end and comprising a common portion, - the base body is provided with a fitting groove, - the tubular joint comprises a sealing gasket, positioned in the fitting groove and applied against the spigot end and the fitting end, and - the skirt and the spigot end are suitable for allowing an angular deviation of the spigot end relative to the fitting end of at least 2°, preferably at least 3° and in particular at least 5°, when the spigot end is in partial contact with the axial bottom stop.
A gypsum panel comprising a first polymeric additive and a second polymeric additive distributed therein, wherein the first polymeric additive is polyvinyl acetate and the second polymeric additive is starch; the gypsum panel having glass fibres embedded therein in an amount greater than 2 wt% and less than 10wt% relative to the gypsum; wherein the total amount of the first and second polymeric additives is greater than 4 wt% and less than 15 wt% relative to the gypsum.
A system for detecting abnormal movement resulting from breakage of a shaft in a gas turbine engine, the system comprising a detection circuit, the detection circuit including a frangible fuse portion and a plunger connected to or adjacent the frangible fuse portion, wherein the plunger may be displaced as a result of movement of the broken gas turbine shaft to break the frangible fuse portion and thereby alter the detection circuit, characterised in that the frangible fuse portion is conductive ceramic.
A resin composition, comprising a blend of: an epoxy polysiloxane resin; an epoxyfluorosilicone resin; and a fluorinated silane-modified polyacrylic resin.
A pneumatic tire comprising a layer made of a thermoplastic elastomer composition comprising a modified ethylene-vinyl alcohol copolymer to which an aliphatic polyester(s) is/are grafted, a polyamide resin, and a modified rubber that is an ethylene-α-olefin copolymer, ethylene-unsaturated carboxylic acid copolymer, or ethylene-unsaturated carboxylic acid ester copolymer, each containing an acid anhydride group or an epoxy group.
A rivet nut comprising: a cylindrical portion including a cylindrical body opening in an axial direction, and a thread ridge provided in an inner circumferential surface of the cylindrical body; and a flange portion provided at one end of the cylindrical body, wherein the flange portion includes corners (30a, 30b) each having a radiused shape at an outer circumferential edge of the flange portion in the cross-sectional view; characterised in that a recess is provided at a top of the thread ridge and the recess has a narrowed opening. a cylindrical portion including a cylindrical body opening in an axial direction, and a thread ridge provided in an inner circumferential surface of the cylindrical body; and a flange portion provided at one end of the cylindrical body, wherein the flange portion includes corners (30a, 30b) each having a radiused shape at an outer circumferential edge of the flange portion in the cross-sectional view; characterised in that a recess is provided at a top of the thread ridge and the recess has a narrowed opening.
A method of repairing a randomly damaged area of a one-piece composite component of an aircraft, the damaged area covering skin and underlying stiffening substructure of the component, the method comprising: generating a design of a customized composite replacement panel for replacing the damaged area, the design including replacement skin and underlying integrated replacement stiffening substructure; and fabricating the composite replacement panel according to the design, wherein fabricating the replacement panel includes fabricating a custom layup mandrel tool and using the fabricated tool for layup and curing of the replacement panel, wherein dirty operations on the mandrel tool during fabrication and on the panel after the panel has been cured are performed in a dirty section of a fabrication cell; and composite layup of the replacement panel on the mandrel tool is performed in a clean section of the fabrication cell. generating a design of a customized composite replacement panel for replacing the damaged area, the design including replacement skin and underlying integrated replacement stiffening substructure; and fabricating the composite replacement panel according to the design, wherein fabricating the replacement panel includes fabricating a custom layup mandrel tool and using the fabricated tool for layup and curing of the replacement panel, wherein dirty operations on the mandrel tool during fabrication and on the panel after the panel has been cured are performed in a dirty section of a fabrication cell; and composite layup of the replacement panel on the mandrel tool is performed in a clean section of the fabrication cell.
A pneumatic spinning device for producing spun yarn by whirling fiber of a fiber bundle by whirling airflow, comprising: a depressurized suction chamber section in which a depressurized suction chamber is formed, a whirling chamber section in which a whirling chamber is formed, wherein a radius of a depressurized suction chamber forming surface is set to be smaller than a radius of a whirling chamber forming surface so that a peripheral length of the whirling chamber is longer than a peripheral length of the depressurized suction chamber, and in which at least one air injecting nozzle is formed to inject compressed air from a nozzle opening opening into the whirling chamber to generate the whirling airflow in the whirling chamber; and a spindle in which a fiber passage is formed; wherein the spindle is arranged such that a tip end at an inlet of the fiber passage is located within the depressurized suction chamber, and the nozzle opening is located downstream than the tip end of the spindle in a feeding direction of the fiber bundle. a depressurized suction chamber section in which a depressurized suction chamber is formed, a whirling chamber section in which a whirling chamber is formed, wherein a radius of a depressurized suction chamber forming surface is set to be smaller than a radius of a whirling chamber forming surface so that a peripheral length of the whirling chamber is longer than a peripheral length of the depressurized suction chamber, and in which at least one air injecting nozzle is formed to inject compressed air from a nozzle opening opening into the whirling chamber to generate the whirling airflow in the whirling chamber; and a spindle in which a fiber passage is formed; wherein the spindle is arranged such that a tip end at an inlet of the fiber passage is located within the depressurized suction chamber, and the nozzle opening is located downstream than the tip end of the spindle in a feeding direction of the fiber bundle.
A method of detecting the presence or activity of a target molecule in a sample comprising: a) contacting the sample with i) a polynucleotide encoding a biosensor polypeptide comprising a modified circularly-permuted thermostable luciferase and a linker linking the C-terminal portion of the thermostable luciferase to the N-terminal portion of the thermostable luciferase, the linker comprising a sensor region capable of interacting with a target molecule in a cell, wherein the modified circularly-permuted thermostable luciferase comprises a substitution at an amino acid corresponding to positions 507, 503, 471 or 193 of SEQ ID NO: 2, or a combination thereof, and wherein the modified circularly-permuted thermostable luciferase has an enhanced response after interaction of the biosensor with the target molecule relative to an unmodified thermostable luciferase biosensor; and ii) a substrate for the modified thermostable luciferase; and b) detecting luminescence in the sample. a) contacting the sample with i) a polynucleotide encoding a biosensor polypeptide comprising a modified circularly-permuted thermostable luciferase and a linker linking the C-terminal portion of the thermostable luciferase to the N-terminal portion of the thermostable luciferase, the linker comprising a sensor region capable of interacting with a target molecule in a cell, wherein the modified circularly-permuted thermostable luciferase comprises a substitution at an amino acid corresponding to positions 507, 503, 471 or 193 of SEQ ID NO: 2, or a combination thereof, and wherein the modified circularly-permuted thermostable luciferase has an enhanced response after interaction of the biosensor with the target molecule relative to an unmodified thermostable luciferase biosensor; and ii) a substrate for the modified thermostable luciferase; and i) a polynucleotide encoding a biosensor polypeptide comprising a modified circularly-permuted thermostable luciferase and a linker linking the C-terminal portion of the thermostable luciferase to the N-terminal portion of the thermostable luciferase, the linker comprising a sensor region capable of interacting with a target molecule in a cell, wherein the modified circularly-permuted thermostable luciferase comprises a substitution at an amino acid corresponding to positions 507, 503, 471 or 193 of SEQ ID NO: 2, or a combination thereof, and wherein the modified circularly-permuted thermostable luciferase has an enhanced response after interaction of the biosensor with the target molecule relative to an unmodified thermostable luciferase biosensor; and wherein the modified circularly-permuted thermostable luciferase comprises a substitution at an amino acid corresponding to positions 507, 503, 471 or 193 of SEQ ID NO: 2, or a combination thereof, and wherein the modified circularly-permuted thermostable luciferase has an enhanced response after interaction of the biosensor with the target molecule relative to an unmodified thermostable luciferase biosensor; and ii) a substrate for the modified thermostable luciferase; and b) detecting luminescence in the sample.
A low drop-out, LDO voltage regulating circuit comprising, arranged in parallel between a first power supply node and a second power supply node: - an output node; - a band-gap voltage reference stage having double Vbe structure, adapted to provide a band-gap voltage ( Vbg) and a double band-gap voltage ( 2xVbg); and, - an output stage having a pass device controlled by the double band-gap voltage and adapted to drive current into a load connected to the output node under a regulated output voltage (Vout), and having circuitry for generating a feedback voltage ( Vf) representative of said output voltage; and, - a comparator stage having a first input for receiving the band-gap voltage ( Vbg) from the reference stage and a second input for receiving the feedback voltage from the output stage, and adapted to control band-gap voltage reference stage. - an output node; - a band-gap voltage reference stage having double Vbe structure, adapted to provide a band-gap voltage ( Vbg) and a double band-gap voltage ( 2xVbg); and, - an output stage having a pass device controlled by the double band-gap voltage and adapted to drive current into a load connected to the output node under a regulated output voltage (Vout), and having circuitry for generating a feedback voltage ( Vf) representative of said output voltage; and, - a comparator stage having a first input for receiving the band-gap voltage ( Vbg) from the reference stage and a second input for receiving the feedback voltage from the output stage, and adapted to control band-gap voltage reference stage.
A pharmaceutical solid preparation comprising [(1R,5S,6S)-6-(aminomethyl)-3-ethylbicyclo[3.2.0]hept-3-en-6-yl]acetic acid monobenzenesulfonate which is a compound represented by the following formula: in combination with (i) one or two or more excipients, (ii) one or two or more disintegrants, and (iii) one or two or more antioxidants selected from the group consisting of sodium edetate, citric acid hydrate, dibutylhydroxytoluene, propyl gallate, magnesium citrate (anhydrous), soybean lecithin, tocopherol, tocopherol acetic acid ester, and β-cyclodextrin. (i) one or two or more excipients, (ii) one or two or more disintegrants, and (iii) one or two or more antioxidants selected from the group consisting of sodium edetate, citric acid hydrate, dibutylhydroxytoluene, propyl gallate, magnesium citrate (anhydrous), soybean lecithin, tocopherol, tocopherol acetic acid ester, and β-cyclodextrin.
An RFID apparatus for compartment occupancy detection in a shelf, the RFID apparatus comprising at least one antenna, an RF transceiver connected to the antenna and a control and evaluation unit for communicating with an RFID transponder via the RF transceiver and the antenna by means of an RFID signal and for a detection and localization of changes in the compartment occupancy, the RFID apparatus further comprising a plurality of reference transponders to be arranged on the shelf at known positions, wherein the control and evaluation unit is configured to localize, upon a change of a detectable RFID transponder population, an RFID transponder which is removed or added based on the position of a reference transponder where communication characteristics of the RFID communication have changed together with the change of the detectable RFID transponder population, characterized in that the reference transponders are movably arranged on the shelf and change their position when an object is added or removed, or movable shielding elements are arranged with the reference transponders which change their position relative to a respective reference transponder by adding or removing an object.
A heat exchanger for use in a desiccant air conditioning system, comprising: a plurality of membrane-plate assemblies facing each other in a generally parallel arrangement and being spaced apart to define air gaps therebetween through which air to be treated by the desiccant air conditioning system can flow, each of said membrane-plate assemblies comprising: (a) a plate structure, (b) two membranes, each facing an opposite side of the plate structure and spaced apart from the plate structure to define a gap therebetween through which a liquid desiccant can flow, and (c) at least one desiccant drain port, wherein each membrane has a bottom portion that is sealed to the plate structure such that liquid desiccant is forced to flow through the at least one drain port, thereby creating a negative pressure in the gap between each membrane and the plate structure. a plurality of membrane-plate assemblies facing each other in a generally parallel arrangement and being spaced apart to define air gaps therebetween through which air to be treated by the desiccant air conditioning system can flow, each of said membrane-plate assemblies comprising: (a) a plate structure, (b) two membranes, each facing an opposite side of the plate structure and spaced apart from the plate structure to define a gap therebetween through which a liquid desiccant can flow, and (c) at least one desiccant drain port, (a) a plate structure, (b) two membranes, each facing an opposite side of the plate structure and spaced apart from the plate structure to define a gap therebetween through which a liquid desiccant can flow, and (c) at least one desiccant drain port, wherein each membrane has a bottom portion that is sealed to the plate structure such that liquid desiccant is forced to flow through the at least one drain port, thereby creating a negative pressure in the gap between each membrane and the plate structure.
A separator, comprising: a first porous substrate; a second porous substrate; and a third porous substrate; wherein, the second porous substrate comprises at least one of polyethylene and a tactic polypropylene, and the first porous substrate and the third porous substrate respectively comprise one or more of isotactic polypropylene, polyvinylidene fluoride, polyethylene terephthalate, cellulose, polyimide, polyamide, spandex, and polyphthalaldehyde phenyl diamine, wherein the second porous substrate is arranged between the first porous substrate and the third porous substrate, and a tensile strength of the separator in a machine direction is greater than a tensile strength of the separator in a transverse direction, and wherein the tensile strength is determined as follows: first, the separator is cut into a sample having a width of 14.5 mm and a length of 100 mm in the machine direction and the transverse direction, respectively, then the separator sample is stretched at a constant rate (v) of 50 mm/min and a clamping distance of 40 mm using a high-speed tensile machine, and the tensile strengths of the separator in the machine and transverse fractures are recorded separately, characterized in that the tensile strength of the separator in the machine direction is 9806.65 Pa ∼ 29419.95 Pa (1000 kgf/m 2 ∼3000 kgf/m 2) and the tensile strength of the separator in the transverse direction is 196.133 Pa ∼ 3922.66 Pa (20 kgf/m 2 ∼400 kgf/m 2). a first porous substrate; a second porous substrate; and a third porous substrate; wherein, the second porous substrate comprises at least one of polyethylene and a tactic polypropylene, and the first porous substrate and the third porous substrate respectively comprise one or more of isotactic polypropylene, polyvinylidene fluoride, polyethylene terephthalate, cellulose, polyimide, polyamide, spandex, and polyphthalaldehyde phenyl diamine, wherein the second porous substrate is arranged between the first porous substrate and the third porous substrate, and a tensile strength of the separator in a machine direction is greater than a tensile strength of the separator in a transverse direction, and wherein the tensile strength is determined as follows: first, the separator is cut into a sample having a width of 14.5 mm and a length of 100 mm in the machine direction and the transverse direction, respectively, then the separator sample is stretched at a constant rate (v) of 50 mm/min and a clamping distance of 40 mm using a high-speed tensile machine, and the tensile strengths of the separator in the machine and transverse fractures are recorded separately, characterized in that the tensile strength of the separator in the machine direction is 9806.65 Pa ∼ 29419.95 Pa (1000 kgf/m 2 ∼3000 kgf/m 2) and the tensile strength of the separator in the transverse direction is 196.133 Pa ∼ 3922.66 Pa (20 kgf/m 2 ∼400 kgf/m 2).
A monitoring and mass notification system, comprising: a control unit for broadcasting alert messages via addressable wireless links; a wireless base unit (20A, 20B) having a notification interface, a slave transceiver for receiving the alert messages from the control unit, and an identification address for distinguishing the wireless base unit (20A, 20B) from other wireless base units (20A, 20B); and a notification device (22, 24, 26, 28) having a base interface for plugging into the notification interface of the wireless base unit (20A, 20B) and, when the notification device (22, 24, 26, 28) is plugged into the wireless base unit (20A, 20B), sending notification device information to the wireless base unit (20A, 20B) indicating a type of the notification device; wherein the notification device (22, 24, 26, 28) receives a notification command from the wireless base unit (20A, 20B) and the notification device (22, 24, 26, 28) generates an alarm notification in response to receiving the notification command from the wireless base unit (20A, 20B) based on the broadcasted alert messages associated with the identification address; wherein the wireless base unit (20A, 20B) reports the notification device information received from the notification device (22, 24, 26, 28) to the control unit; and wherein the wireless base unit (20A, 20B) is configured to send a notification status check to the notification device (22, 24, 26, 28) in order to monitor the notification device information of the notification device (22, 24, 26, 28) on a periodic basis. a control unit for broadcasting alert messages via addressable wireless links; a wireless base unit (20A, 20B) having a notification interface, a slave transceiver for receiving the alert messages from the control unit, and an identification address for distinguishing the wireless base unit (20A, 20B) from other wireless base units (20A, 20B); and a notification device (22, 24, 26, 28) having a base interface for plugging into the notification interface of the wireless base unit (20A, 20B) and, when the notification device (22, 24, 26, 28) is plugged into the wireless base unit (20A, 20B), sending notification device information to the wireless base unit (20A, 20B) indicating a type of the notification device; wherein the notification device (22, 24, 26, 28) receives a notification command from the wireless base unit (20A, 20B) and the notification device (22, 24, 26, 28) generates an alarm notification in response to receiving the notification command from the wireless base unit (20A, 20B) based on the broadcasted alert messages associated with the identification address; wherein the wireless base unit (20A, 20B) reports the notification device information received from the notification device (22, 24, 26, 28) to the control unit; and wherein the wireless base unit (20A, 20B) is configured to send a notification status check to the notification device (22, 24, 26, 28) in order to monitor the notification device information of the notification device (22, 24, 26, 28) on a periodic basis.