mhurhangee/ep-ind-claims huggingface dataset:
A system (200A, B, C) comprising: a tank that stores a fluid; a conduit that includes a first end and a second end; and a fan drive gear system (214; 602) of a gas turbine engine fluidly coupled to the first end of the conduit to receive at least a portion of the fluid conveyed by the conduit, wherein the fan drive gear system (214; 602) returns at least a portion of the fluid to a tank inlet of the tank, wherein the conduit is configured to convey at least a portion of the fluid stored in the tank from the second end of the conduit to the first end of the conduit, wherein the first end of the conduit is in fluid communication with a mechanism that draws at least a portion of fluid from the tank; characterised in that a first end region of the conduit coinciding with the second end of the conduit has a first end region density and the fluid has a fluid density, and the first end region density is greater than or equal to the fluid density such that the first end region of the conduit remains immersed in the fluid stored in the tank when the fluid in the tank is under negative gravity conditions. a tank that stores a fluid; a conduit that includes a first end and a second end; and a fan drive gear system (214; 602) of a gas turbine engine fluidly coupled to the first end of the conduit to receive at least a portion of the fluid conveyed by the conduit, wherein the fan drive gear system (214; 602) returns at least a portion of the fluid to a tank inlet of the tank, wherein the conduit is configured to convey at least a portion of the fluid stored in the tank from the second end of the conduit to the first end of the conduit, wherein the first end of the conduit is in fluid communication with a mechanism that draws at least a portion of fluid from the tank; characterised in that a first end region of the conduit coinciding with the second end of the conduit has a first end region density and the fluid has a fluid density, and the first end region density is greater than or equal to the fluid density such that the first end region of the conduit remains immersed in the fluid stored in the tank when the fluid in the tank is under negative gravity conditions.
Device for handling traffic cones that may equip a vehicle, said device comprises: - a frame, - a means for transferring cones from a provisioning unit to a handling station, - a cone gripping unit, - and means for moving said gripping unit between the handling station and release points, said means for moving comprising: - a lifting unit ensuring vertical movement for raising and lowering the gripping unit, - a translation unit ensuring the transverse horizontal movement of said lifting unit and of said gripping unit, said translation unit comprises at least one first slider that comprises a fixed part rigidly connected to the frame and a part that can move in translation, said device being characterized in that said translation unit comprises a second slider that comprises a part rigidly connected to the movable part of the first slider and a second part that can move in translation, that is in the form of a carriage, and in that said lifting unit comprising a vertical guide rigidly connected to the carriage and to said gripping unit. - a frame, - a means for transferring cones from a provisioning unit to a handling station, - a cone gripping unit, - and means for moving said gripping unit between the handling station and release points, - a lifting unit ensuring vertical movement for raising and lowering the gripping unit, - a translation unit ensuring the transverse horizontal movement of said lifting unit and of said gripping unit,
A vehicular display system that is mounted on a vehicle to show an image of a surrounding area of the vehicle, the vehicular display system comprising: an imaging unit configured to capture the image of the surrounding area of the vehicle; an image processing unit configured to convert the image captured by the imaging unit into a view image that is an image of the surrounding area of the vehicle seen from inside of a cabin; and a display unit configured to show the view image generated by the image processing unit, wherein the image processing unit is configured to generate, as the view image, a rear-view image and a front-view image, characterized in that the rear-view image is being acquired when an area behind the vehicle is seen from a first virtual viewpoint located in the cabin, and the front-view image being acquired when an area in front of the vehicle is seen from a second virtual viewpoint that is located behind the first virtual viewpoint in the cabin when seen in longitudinal direction from the front to the rear of the vehicle, and the display unit is configured to show the rear-view image when the vehicle travels backward, to show the front-view image when the vehicle travels forward, and to show both of the view images at substantially the same angle of view. an imaging unit configured to capture the image of the surrounding area of the vehicle; an image processing unit configured to convert the image captured by the imaging unit into a view image that is an image of the surrounding area of the vehicle seen from inside of a cabin; and a display unit configured to show the view image generated by the image processing unit, wherein the image processing unit is configured to generate, as the view image, a rear-view image and a front-view image, characterized in that the rear-view image is being acquired when an area behind the vehicle is seen from a first virtual viewpoint located in the cabin, and the front-view image being acquired when an area in front of the vehicle is seen from a second virtual viewpoint that is located behind the first virtual viewpoint in the cabin when seen in longitudinal direction from the front to the rear of the vehicle, and the display unit is configured to show the rear-view image when the vehicle travels backward, to show the front-view image when the vehicle travels forward, and to show both of the view images at substantially the same angle of view.
An insect monitoring and trapping device comprising: a base and a lid for covering the base, wherein the base and the lid are constructed to provide a trap interior and an insect opening for insects to access the trap interior; a heating device provided within the trap interior for attracting the insects; an adhesive surface provided within the trap interior for trapping the insects; and electronic sensors, the sensors activate an electronic signal which is sent from the device to a control panel, if an insect is present in the device, characterized in that the base comprises a peripheral wall for the insects to climb over to enter the trap interior, and in that the peripheral wall comprises a top surface having serrations. a base and a lid for covering the base, wherein the base and the lid are constructed to provide a trap interior and an insect opening for insects to access the trap interior; a heating device provided within the trap interior for attracting the insects; an adhesive surface provided within the trap interior for trapping the insects; and electronic sensors, the sensors activate an electronic signal which is sent from the device to a control panel, if an insect is present in the device, characterized in that the base comprises a peripheral wall for the insects to climb over to enter the trap interior, and in that the peripheral wall comprises a top surface having serrations.
A modular communications apparatus, comprising: an earpiece module including a microphone, an earphone, a Bluetooth antenna, a microprocessor, a memory card port, a high-speed USB data port, an embedded battery, and a removable and rechargeable external earpiece battery port; and a camera phone module including a GPS enabled wide, local, and personal area network telephone, a camera, a microprocessor, an expandable memory storage, a high-speed USB data port, and an internal battery; each including a multimedia port/headphone connector, with which said earpiece module and said camera phone module are attachable and detachable from each other; wherein when said camera phone module and said earpiece module are detached from each other: said earpiece module is independently operable as any of a standalone media player and a wireless communications device for communication with said detached camera phone module; and said detachable camera phone module is independently operable as a hand-held, GPS enabled, wide, local, and personal area network phone; and wherein when said camera phone module and said earpiece module are attached to each other: said attached camera phone module and said earpiece module operate as a single autonomous hands-free wireless video communications headset capable of still image and video capturing having a form factor that is wearable by a user hands-free with the earphone positioned in the user's ear. an earpiece module including a microphone, an earphone, a Bluetooth antenna, a microprocessor, a memory card port, a high-speed USB data port, an embedded battery, and a removable and rechargeable external earpiece battery port; and a camera phone module including a GPS enabled wide, local, and personal area network telephone, a camera, a microprocessor, an expandable memory storage, a high-speed USB data port, and an internal battery; each including a multimedia port/headphone connector, with which said earpiece module and said camera phone module are attachable and detachable from each other; wherein when said camera phone module and said earpiece module are detached from each other: said earpiece module is independently operable as any of a standalone media player and a wireless communications device for communication with said detached camera phone module; and said detachable camera phone module is independently operable as a hand-held, GPS enabled, wide, local, and personal area network phone; and said earpiece module is independently operable as any of a standalone media player and a wireless communications device for communication with said detached camera phone module; and said detachable camera phone module is independently operable as a hand-held, GPS enabled, wide, local, and personal area network phone; and wherein when said camera phone module and said earpiece module are attached to each other: said attached camera phone module and said earpiece module operate as a single autonomous hands-free wireless video communications headset capable of still image and video capturing having a form factor that is wearable by a user hands-free with the earphone positioned in the user's ear.
A component (50,150) for a gas turbine engine, comprising: a platform (54,154); an airfoil (52,152) that extends from said platform (54,154); and an insert (82,182) positioned such that a first portion (84,184) of said insert (82,182) extends relative to a surface (80,180) of said platform (54,154) and a second portion (86,186) extends inside said airfoil (52,152), wherein a plurality of standoffs (88,188) protrude from said surface (80; 180) and support said insert (82,182) radially above said surface (80,180), and said insert (82, 182) is attached to each of said standoffs (88, 188), characterised in that: the plurality of standoffs (88, 188) are cast and/or machined as part of said platform (54,154); and a radial gap extends between said surface (80,180) of said platform (54,154) and said first portion (84,184) of said insert (82,182) such that a cooling fluid can be communicated through said radial gap. a platform (54,154); an airfoil (52,152) that extends from said platform (54,154); and an insert (82,182) positioned such that a first portion (84,184) of said insert (82,182) extends relative to a surface (80,180) of said platform (54,154) and a second portion (86,186) extends inside said airfoil (52,152), wherein a plurality of standoffs (88,188) protrude from said surface (80; 180) and support said insert (82,182) radially above said surface (80,180), and said insert (82, 182) is attached to each of said standoffs (88, 188), the plurality of standoffs (88, 188) are cast and/or machined as part of said platform (54,154); and a radial gap extends between said surface (80,180) of said platform (54,154) and said first portion (84,184) of said insert (82,182) such that a cooling fluid can be communicated through said radial gap.
A charging integrated circuit, IC, for a mobile device including a battery, the charging IC comprising: a switching charger including at least one inductor, and a direct charger including at least one capacitor; and a control circuit configured to detect a connection between the mobile device and an external power unit, wherein the switching charger and the direct charger are configured to receive an external power signal to be provided by the external power unit by the connection between the mobile device and an external power unit, wherein the charging IC is configured to: activate the direct charger and provide a constant charging current to the battery using the direct charger upon detecting the connection between the mobile device and the external power unit, and characterized in that: the control circuit is configured to detect a communication disconnection between the mobile device and the external power unit, and the charging IC is configured to deactivate the direct charger, activate the switching charger, and maintain a battery voltage associated with the battery using the switching charger upon detecting the communication disconnection between the mobile device and the external power unit. a switching charger including at least one inductor, and a direct charger including at least one capacitor; and a control circuit configured to detect a connection between the mobile device and an external power unit, wherein the switching charger and the direct charger are configured to receive an external power signal to be provided by the external power unit by the connection between the mobile device and an external power unit, wherein the charging IC is configured to: activate the direct charger and provide a constant charging current to the battery using the direct charger upon detecting the connection between the mobile device and the external power unit, and the control circuit is configured to detect a communication disconnection between the mobile device and the external power unit, and the charging IC is configured to deactivate the direct charger, activate the switching charger, and maintain a battery voltage associated with the battery using the switching charger upon detecting the communication disconnection between the mobile device and the external power unit.
A method of sterilisation, decontamination and/or sanitation of an enclosed environment, the method comprising the steps of: a) measuring the temperature of an enclosed environment to be treated; b) calculating the relative humidity required to provide a predetermined partial pressure of water vapour at the measured temperature; c) introducing an appropriate quantity of water to the environment to provide the calculated relative humidity; d) discharging ozone into the humidified environment; e) maintaining the ozone level at a concentration that will achieve the required degree of decontamination, sterilisation and/or sanitation of the humid environment; f) reducing the ozone level to an acceptable safe exposure level, and characterised in that the step of calculating the relative humidity is computed by means of an algorithm comprising the steps of determining the partial pressure of water vapour at a base temperature corresponding to the optimum operating temperature of the enclosed environment and the optimum relative humidity at that base temperature to provide the base partial pressure; determining the saturated vapour pressure for the measured temperature and calculating the required relative humidity as a function of the saturated vapour pressure at the measured temperature and the base partial pressure. a) measuring the temperature of an enclosed environment to be treated; b) calculating the relative humidity required to provide a predetermined partial pressure of water vapour at the measured temperature; c) introducing an appropriate quantity of water to the environment to provide the calculated relative humidity; d) discharging ozone into the humidified environment; e) maintaining the ozone level at a concentration that will achieve the required degree of decontamination, sterilisation and/or sanitation of the humid environment; f) reducing the ozone level to an acceptable safe exposure level, and characterised in that the step of calculating the relative humidity is computed by means of an algorithm comprising the steps of determining the partial pressure of water vapour at a base temperature corresponding to the optimum operating temperature of the enclosed environment and the optimum relative humidity at that base temperature to provide the base partial pressure; determining the saturated vapour pressure for the measured temperature and calculating the required relative humidity as a function of the saturated vapour pressure at the measured temperature and the base partial pressure.
Agricultural machine having an air line which has a casing and has a flow cross section for guiding an air flow, wherein the agricultural machine comprises a separating apparatus for pressure-difference-based separation of grains and the air line serves as a compressed-air line for transporting separated grains to the arable soil in a manner assisted by compressed air, wherein the air line has at least one air-guiding portion for directing the air flow radially inwards, wherein the casing has a passage opening in its casing surface and the casing is deformed inwards so as to form a depression in the direction of the passage opening, characterized - in that the air line has a curved portion (10.1) with a radially inner sub-region and with a radially outer sub-region, and - in that the flow cross section tapers in the flow direction in the curved section (10.1) and tapers radially inwards from the radially outer sub-region of the curved portion (10.1). - in that the air line has a curved portion (10.1) with a radially inner sub-region and with a radially outer sub-region, and - in that the flow cross section tapers in the flow direction in the curved section (10.1) and tapers radially inwards from the radially outer sub-region of the curved portion (10.1).
A dextran sulfate characterized by: a number average molecular weight, M n, as measured by nuclear magnetic resonance, NMR, spectroscopy within an interval of 1850 and 3500 Da; an average sulfate number per glucose unit within an interval of 2.5 and 3.0; and an average sulfation of C2 position in the glucose units of said dextran sulfate is at least 90 %, or a salt thereof. a number average molecular weight, M n, as measured by nuclear magnetic resonance, NMR, spectroscopy within an interval of 1850 and 3500 Da; an average sulfate number per glucose unit within an interval of 2.5 and 3.0; and an average sulfation of C2 position in the glucose units of said dextran sulfate is at least 90 %, or a salt thereof.
Device for mixing a stream of supercharging air and a stream of recirculated exhaust gases with a view to admitting them into the cylinder head of a motor vehicle combustion engine, comprising: - a manifold allowing the stream of supercharging air and the stream of recirculated exhaust gases to be mixed, and allowing the mixture to be distributed in the cylinder head, - means for conveying recirculated exhaust gases in said manifold that allow the distributed injection of the recirculated exhaust gases into the stream of supercharging air, said device additionally comprising means for thermally insulating the conveying means in order to limit the cooling of the recirculated exhaust gases by the supercharging air, characterized in that the thermal insulation means comprise a supercharging air deflector placed upstream of said conveying means in the direction of circulation of the supercharging air, said deflector diverting the stream of supercharging air so that it bypasses the conveying means. - a manifold allowing the stream of supercharging air and the stream of recirculated exhaust gases to be mixed, and allowing the mixture to be distributed in the cylinder head, - means for conveying recirculated exhaust gases in said manifold that allow the distributed injection of the recirculated exhaust gases into the stream of supercharging air,
A method for memory address mapping in a disaggregated memory pool, the method comprising: receiving, at a memory control system (104A, 104B), an indication of one or more ranges of host physical addresses (402A, 402B, 402C, 402D, 402E), HPAs, from a compute node (100A, 100B) of a plurality of compute nodes (100A, 100B) communicatively coupled to the disaggregated memory pool, the one or more ranges of HPAs (402A, 402B, 402C, 402D, 402E) including a plurality of memory addresses corresponding to different allocation slices (306A, 306B, 306C, 306D) of the disaggregated memory pool that are allocated to the compute node (100A, 100B); converting the one or more ranges of HPAs (402A, 402B, 402C, 402D, 402E) into a contiguous range of device physical addresses (406A, 406B, 406C), DPAs; for each DPA (406A, 406B, 406C), identifying a target address decoder, TAD, for an allocation slice (306A, 306B, 306C, 306D) of the disaggregated memory pool that the DPA (406A, 406B, 406C) corresponds to, based on a slice identifier included in the DPA (406A, 406B, 406C) and a slice-to-TAD index; and for each DPA (406A, 406B, 406C), mapping the DPA (406A, 406B, 406C) to a media-specific physical element of a physical memory unit (708A, 708B, 708C) of the disaggregated memory pool based on the TAD. receiving, at a memory control system (104A, 104B), an indication of one or more ranges of host physical addresses (402A, 402B, 402C, 402D, 402E), HPAs, from a compute node (100A, 100B) of a plurality of compute nodes (100A, 100B) communicatively coupled to the disaggregated memory pool, the one or more ranges of HPAs (402A, 402B, 402C, 402D, 402E) including a plurality of memory addresses corresponding to different allocation slices (306A, 306B, 306C, 306D) of the disaggregated memory pool that are allocated to the compute node (100A, 100B); converting the one or more ranges of HPAs (402A, 402B, 402C, 402D, 402E) into a contiguous range of device physical addresses (406A, 406B, 406C), DPAs; for each DPA (406A, 406B, 406C), identifying a target address decoder, TAD, for an allocation slice (306A, 306B, 306C, 306D) of the disaggregated memory pool that the DPA (406A, 406B, 406C) corresponds to, based on a slice identifier included in the DPA (406A, 406B, 406C) and a slice-to-TAD index; and for each DPA (406A, 406B, 406C), mapping the DPA (406A, 406B, 406C) to a media-specific physical element of a physical memory unit (708A, 708B, 708C) of the disaggregated memory pool based on the TAD.