mhurhangee/ep-ind-claims huggingface dataset:
Gaseous dihydrogen recovery system comprising a distribution duct arranged between a main tank and a dihydrogen consumer device, the distribution duct comprising a pump for supplying dihydrogen to the dihydrogen consumer device at a predefined temperature and at a predefined pressure, the gaseous dihydrogen being produced by evaporation of liquid dihydrogen in the distribution duct, the gaseous dihydrogen recovery system comprising: - an auxiliary tank, - a bypass duct arranged between the distribution duct and the auxiliary tank, downstream of the pump in a direction of circulation of the dihydrogen in the distribution duct, - a first controlled valve arranged on the bypass duct, - a module for obtaining information representative of a temperature of the dihydrogen in the distribution duct, upstream of the pump, and - a control module of the first controlled valve configured to open the controlled valve when the information representative of the temperature of the dihydrogen in the distribution duct is greater than a predetermined value and to close the first controlled valve when the information representative of the temperature of the dihydrogen in the distribution duct is less than or equal to the predetermined value. - an auxiliary tank, - a bypass duct arranged between the distribution duct and the auxiliary tank, downstream of the pump in a direction of circulation of the dihydrogen in the distribution duct, - a first controlled valve arranged on the bypass duct, - a module for obtaining information representative of a temperature of the dihydrogen in the distribution duct, upstream of the pump, and - a control module of the first controlled valve configured to open the controlled valve when the information representative of the temperature of the dihydrogen in the distribution duct is greater than a predetermined value and to close the first controlled valve when the information representative of the temperature of the dihydrogen in the distribution duct is less than or equal to the predetermined value.
Force sensor for detecting at least one force component, in particular the force acting in the longitudinal direction of an elongate device, in particular a medical device such as a catheter or guide wire, comprising a force receiver for the force to be detected, consisting of a base body having an end face and at least one strain-sensitive and/or expansion-sensitive resistor (R 1 to R 6), electrical connection faces of the sensor, and a connection for attaching the sensor to the elongate device, characterised in that - the base body comprises an incision which brings about an asymmetry of the base body about the longitudinal direction of the elongate device which leads to the base body deforming when force is applied from the axial direction (F z), - the end face has an area which is much greater than the cross-sectional area of the base body in the region of the incision, but not substantially smaller than the cross section of the rest of the base body, - and the electrical connection faces are attached non-perpendicular to the axial direction of the elongate device. - the base body comprises an incision which brings about an asymmetry of the base body about the longitudinal direction of the elongate device which leads to the base body deforming when force is applied from the axial direction (F z), - the end face has an area which is much greater than the cross-sectional area of the base body in the region of the incision, but not substantially smaller than the cross section of the rest of the base body, - and the electrical connection faces are attached non-perpendicular to the axial direction of the elongate device.
A compound of the following Chemical Formula 1, a pharmaceutically acceptable salt thereof, a hydrate thereof, or a solvate thereof: wherein R 1 of Chemical Formula 1 is selected from the group consisting of halogen, C 1 -C 5 alkyl, C 3 -C 6 cycloalkyl, C 3 -C 6 cycloalkenyl, and C 6 -C 18 aryl group, wherein the aryl group is unsubstituted or substituted with one or more selected from the group consisting of halogen, C 1 -C 5 alkyl, C 1 -C 5 alkoxy, methylenedioxy, and nitro groups.
A three-dimensional powder bed fusion additive manufacturing (PBF-AM) apparatus, comprising: a stage on which a powder material is spread; a tubular build box disposed in a state of surrounding the stage, wherein the build box includes a side wall portion having a first tubular member surrounding the stage and a second tubular member surrounding the stage with the first tubular member interposed therebetween and forming a space with the first tubular member, and is configured to be able to form a vacuum heat insulating layer inside the side wall portion by vacuuming the space; the upper and lower ends of the build box are sealed, a groove is formed on at least one of an outer surface of the first tubular member and an inner surface of the second tubular member, the outer surface of the first tubular member and the inner surface of the second tubular member face each other with a gap interposed therebetween except for a formation portion of the groove, and the space is formed by the groove, the apparatus further comprising: a vacuum pump arranged to vacuum the groove; and a refrigerant supply unit arranged to supply a refrigerant to the groove. a stage on which a powder material is spread; a tubular build box disposed in a state of surrounding the stage, wherein the build box includes a side wall portion having a first tubular member surrounding the stage and a second tubular member surrounding the stage with the first tubular member interposed therebetween and forming a space with the first tubular member, and is configured to be able to form a vacuum heat insulating layer inside the side wall portion by vacuuming the space; the upper and lower ends of the build box are sealed, a groove is formed on at least one of an outer surface of the first tubular member and an inner surface of the second tubular member, the outer surface of the first tubular member and the inner surface of the second tubular member face each other with a gap interposed therebetween except for a formation portion of the groove, and the space is formed by the groove, the apparatus further comprising: a vacuum pump arranged to vacuum the groove; and a refrigerant supply unit arranged to supply a refrigerant to the groove. a vacuum pump arranged to vacuum the groove; and a refrigerant supply unit arranged to supply a refrigerant to the groove.
Method for the generation of an orientation pattern in a photo-alignment layer, comprising, - providing a photo-alignment layer and a parallax optical element (23, 32), which are combined such that there is a proper distance between the optically active part of the parallax optical element and the surface of the photo-alignment layer - irradiation of the parallax optical element with aligning light of a first polarization direction under a first incidence angle with regard to a reference plane of the parallax optical element such that the aligning light is directed to first regions (9, 34) on the surface of the photo-alignment layer in order to induce anisotropy in the first regions of the photo-alignment layer - irradiation of the parallax optical element with aligning light of a second polarization direction under a second incidence angle with regard to a reference plane of the parallax optical element, without changing the mutual position and orientation of photo-alignment layer and parallax optical element, such that the aligning light is directed by the parallax optical element to second regions on the photo-alignment layer in order to induce anisotropy in the second regions of the photo-alignment layer. - providing a photo-alignment layer and a parallax optical element (23, 32), which are combined such that there is a proper distance between the optically active part of the parallax optical element and the surface of the photo-alignment layer - irradiation of the parallax optical element with aligning light of a first polarization direction under a first incidence angle with regard to a reference plane of the parallax optical element such that the aligning light is directed to first regions (9, 34) on the surface of the photo-alignment layer in order to induce anisotropy in the first regions of the photo-alignment layer - irradiation of the parallax optical element with aligning light of a second polarization direction under a second incidence angle with regard to a reference plane of the parallax optical element, without changing the mutual position and orientation of photo-alignment layer and parallax optical element, such that the aligning light is directed by the parallax optical element to second regions on the photo-alignment layer in order to induce anisotropy in the second regions of the photo-alignment layer.
A vacuum tumbling system for marinating a material, the system comprising: a vacuum sensor; an airtight driver; an outer vacuum chamber configured to monitor and pull a vacuum; an inner vacuum tumbling chamber configured to enclose a marinade mixture, liquid, and the material, configured to be disposed inside the outer vacuum chamber, and configured to pull the vacuum from the outer vacuum chamber through a small hole which is recessed on a bottom surface of the inner vacuum tumbling chamber; wherein the outer vacuum chamber is configured to monitor the vacuum through the vacuum sensor, to pull the vacuum through the airtight driver, and the small hole allows the vacuum to transfer into the inner vacuum tumbling chamber from the outer vacuum chamber, and to tumble the inner vacuum tumbling chamber in response to the airtight driver being driven. a vacuum sensor; an airtight driver; an outer vacuum chamber configured to monitor and pull a vacuum; an inner vacuum tumbling chamber configured to enclose a marinade mixture, liquid, and the material, configured to be disposed inside the outer vacuum chamber, and configured to pull the vacuum from the outer vacuum chamber through a small hole which is recessed on a bottom surface of the inner vacuum tumbling chamber; wherein the outer vacuum chamber is configured to monitor the vacuum through the vacuum sensor, to pull the vacuum through the airtight driver, and the small hole allows the vacuum to transfer into the inner vacuum tumbling chamber from the outer vacuum chamber, and to tumble the inner vacuum tumbling chamber in response to the airtight driver being driven.
A method for transferring content to a device, the method including the steps of: receiving a request for content from the device; generating a uniquely identifiable player, characterised in that: the uniquely identifiable player is not installed on the device's operating system, nor saved to the device's non-volatile storage, the method further comprising the steps of: incorporating a unique identifier into one or more object code files that are adapted to execute in the device's native operating system to produce the player; and linking the object code files into one or more libraries; delivering the libraries to the device; and transferring content to the device, for presentation on the device by the player. receiving a request for content from the device; generating a uniquely identifiable player, the uniquely identifiable player is not installed on the device's operating system, nor saved to the device's non-volatile storage, the method further comprising the steps of: incorporating a unique identifier into one or more object code files that are adapted to execute in the device's native operating system to produce the player; and linking the object code files into one or more libraries; incorporating a unique identifier into one or more object code files that are adapted to execute in the device's native operating system to produce the player; and linking the object code files into one or more libraries; delivering the libraries to the device; and transferring content to the device, for presentation on the device by the player.
A fluidized bed heat exchanger, which comprises a runner, at least one inlet opening, a heat exchange zone and at least one outlet opening, arranged to each other in a way to allow a stream of solids, deriving from an associated combustor, to enter the heat exchanger via said opening, to pass through said heat exchange zone and to leave the heat exchanger via said outlet opening, wherein a) the Inlet opening is arranged at an upper part of the runner, b) the runner extends downwardly from an upper section of the heat exchanger towards a bottom-section of the heat exchanger and ends close to said bottom-section, thereby allowing a downwardly oriented flow of the solids through said runner, c) the runner is open at its end close to said bottom-section, thereby providing at least one passage for the solids to leave the runner and to flow into at least one heat exchange zone, which is arranged adjacent to said runner and provided with a fluidized bottom, characterized in that, d) the outlet opening is arranged at an upper part of the heat exchanger and extends from the at least one heat exchange zone as part of an outlet channel, which outlet channel extends from said heat exchange zone through said runner to an aperture in an outer wall of the heat exchanger. a) the Inlet opening is arranged at an upper part of the runner, b) the runner extends downwardly from an upper section of the heat exchanger towards a bottom-section of the heat exchanger and ends close to said bottom-section, thereby allowing a downwardly oriented flow of the solids through said runner, c) the runner is open at its end close to said bottom-section, thereby providing at least one passage for the solids to leave the runner and to flow into at least one heat exchange zone, which is arranged adjacent to said runner and provided with a fluidized bottom, characterized in that, d) the outlet opening is arranged at an upper part of the heat exchanger and extends from the at least one heat exchange zone as part of an outlet channel, which outlet channel extends from said heat exchange zone through said runner to an aperture in an outer wall of the heat exchanger. d) the outlet opening is arranged at an upper part of the heat exchanger and extends from the at least one heat exchange zone as part of an outlet channel, which outlet channel extends from said heat exchange zone through said runner to an aperture in an outer wall of the heat exchanger.
Aircraft undercarriage leg including an axle that bears at least one wheel, the undercarriage leg being equipped with a drive unit for driving rotation of the wheel the drive unit being rigidly fixed to the axle and a deformable support (12; 22) extends between a cantilevered portion of the drive unit and a portion of the undercarriage leg not including the axle to support the cantilevered portion of the drive unit, the deformable support (12;22) including an arm rigidly connected to a rod of the undercarriage leg bearing the axle, characterized in that the arm belong to a frame comprising a plate that extends under the axle of the undercarriage and from which the arm extends to carry a damper at its end.
Precompressed sealing tape for sealing a joint, with an elastically resilient foam strip extending further in the longitudinal direction than in the transverse direction, comprising two lateral surfaces and two transverse surfaces (8, 9) connecting these lateral surfaces; and a foil-type wrapping, which completely surrounds the foam strip and thereby holds it in a precompressed state; wherein a transverse surface of the foam strip is pressed against a strip-shaped element made of cardboard or hard plastic, which is arranged inside the wrapping and provides at least a certain resistance to bending in a transverse direction; characterised in that a double-sided adhesive strip connects the foam strip to the strip-shaped element and that the strip-shaped element is adhesively connected to the wrapping.
A composition, comprising: a) a continuous phase including an oil and a fluorosurfactant mixture, the mixture including a triblock copolymer, a diblock copolymer, and a PFPE carboxylic acid, wherein the triblock copolymer has Formula I wherein each of A and B is oxygen or NR 1, R 1 is H or an alkyl group, each of m 1 and m 2 is a number from about 10 to 100, and n is a number from about 10 to 60; the diblock copolymer has Formula II wherein m 3 is a number from about 20 to 50, n 2 is a number from about 8 to 30, and R is H or an alkyl group; and the PFPE carboxylic acid has Formula XI wherein n 6 is a number from about 10 to 100; and b) aqueous droplets suspended in the continuous phase and comprising a non-ionic non-fluorosurfactant and an intercalating dye. a) a continuous phase including an oil and a fluorosurfactant mixture, the mixture including a triblock copolymer, a diblock copolymer, and a PFPE carboxylic acid, wherein the triblock copolymer has Formula I wherein each of A and B is oxygen or NR 1, R 1 is H or an alkyl group, each of m 1 and m 2 is a number from about 10 to 100, and n is a number from about 10 to 60; the diblock copolymer has Formula II wherein m 3 is a number from about 20 to 50, n 2 is a number from about 8 to 30, and R is H or an alkyl group; and the PFPE carboxylic acid has Formula XI wherein n 6 is a number from about 10 to 100; and b) aqueous droplets suspended in the continuous phase and comprising a non-ionic non-fluorosurfactant and an intercalating dye.
A docking instrument system comprising: a lower electronic instrument unit having a top cover; at least one hook aperture and at least one lift pusher aperture in the top cover; a button aperture on a side wall of the lower electronic instrument unit; lifting means on the top cover configured to cause the lift pusher to move upward when the button is pressed; and a sliding hook piece being one unitary component and including a button at an end of the sliding hook piece that extends through the button aperture, at least one hook that extends through the hook aperture, and at least one lift pusher that extends through the lift pusher aperture, wherein the sliding hook piece is slidably attached to the top cover, wherein the sliding hook piece comprises: a generally planar body that is parallel to an interior top surface of the top cover, the hook extending upward from the planar body, and at least one lifting pushing lever from which the lift pusher extends upward; wherein the lifting pushing lever is configured to slide on the lifting means to cause the lift pusher to move upward when the button pressed. a lower electronic instrument unit having a top cover; at least one hook aperture and at least one lift pusher aperture in the top cover; a button aperture on a side wall of the lower electronic instrument unit; lifting means on the top cover configured to cause the lift pusher to move upward when the button is pressed; and a sliding hook piece being one unitary component and including a button at an end of the sliding hook piece that extends through the button aperture, at least one hook that extends through the hook aperture, and at least one lift pusher that extends through the lift pusher aperture, wherein the sliding hook piece is slidably attached to the top cover, wherein the sliding hook piece comprises: a generally planar body that is parallel to an interior top surface of the top cover, the hook extending upward from the planar body, and at least one lifting pushing lever from which the lift pusher extends upward; wherein the lifting pushing lever is configured to slide on the lifting means to cause the lift pusher to move upward when the button pressed. a generally planar body that is parallel to an interior top surface of the top cover, the hook extending upward from the planar body, and at least one lifting pushing lever from which the lift pusher extends upward; wherein the lifting pushing lever is configured to slide on the lifting means to cause the lift pusher to move upward when the button pressed.
A heater device that comprises one or more heating elements, wherein the heating element or each heating element includes one first electrode, one second electrode, and a material having a PTC effect set at least in part between the two electrodes (14, 15), wherein the material having a PTC effect is a plastic-based or polymeric-based mouldable material, characterized in that: - the material having a PTC effect is a plastic-based or polymeric-based mouldable material that comprises a mixture of incompatible or immiscible polymers, including at least two immiscible polymers, combined so as to obtain a co-continuous composite, and wherein at least one of the polymers of the mixture has a melting temperature that cannot be reached following upon heating induced via electrical supply of the heating device. wherein the material having a PTC effect is a plastic-based or polymeric-based mouldable material, characterized in that: - the material having a PTC effect is a plastic-based or polymeric-based mouldable material that comprises a mixture of incompatible or immiscible polymers, including at least two immiscible polymers, combined so as to obtain a co-continuous composite, and - the material having a PTC effect is a plastic-based or polymeric-based mouldable material that comprises a mixture of incompatible or immiscible polymers, including at least two immiscible polymers, combined so as to obtain a co-continuous composite, and wherein at least one of the polymers of the mixture has a melting temperature that cannot be reached following upon heating induced via electrical supply of the heating device.
Inductive sensor for monitoring the position of a traction cable of a cable car system, the sensor comprising a sensor coil having two coil terminals (5a, 5b) and a sensor evaluation unit which is connected to the two coil terminals (5a, 5b), characterized in that the sensor coil is designed so as to have a first winding part and a second winding part connected thereto, the first winding part and the second winding part being wound in opposite directions and the first winding part being connected to a first coil terminal and the second winding part being connected to a second coil terminal, and in that the sensor coil is designed to be operatively connected to the traction cable and the sensor evaluation unit is designed to detect and evaluate a change in position of the traction cable relative to the sensor.
Optoelectronic component comprising - a substrate, - a first electrode, - a second electrode, - at least one organic functional layer which is arranged between first electrode and second electrode and comprises - a matrix material, - a first compound, and - a second compound, wherein the first compound interacting with the second compound, and wherein the first compound and/or the second compound interacting with the matrix material, characterized in that the interactions generating a conductivity in the organic functional layer, and wherein at least one coordinate bond of the first compound with the second compound and at least one coordinate bond is formed by the first compound with the matrix material or wherein - at least one coordinate bond of the first compound with the second compound and at least one coordinate bond is formed by the second compound with the matrix material. - a substrate, - a first electrode, - a second electrode, - at least one organic functional layer which is arranged between first electrode and second electrode and comprises - at least one organic functional layer which is arranged between first electrode and second electrode and comprises - a matrix material, - a first compound, and - a second compound, - at least one coordinate bond of the first compound with the second compound and at least one coordinate bond is formed by the second compound with the matrix material.