mhurhangee/patent-ind-claim-en huggingface dataset:
Automobile air-conditioning system having a refrigerant circuit controlled by a flow control valve, wherein the flow control valve comprises a housing forming a number of internal passages and an internal cavity in fluid communication with each of the internal passages; a flow direction block disposed in the internal cavity, the flow direction block having an outer sealing face acting sealingly together with an inner sealing face of the internal cavity, wherein the flow direction block comprises two clearances extending through a portion of the flow direction block, wherein each of the two clearances is adapted to selectively connect one pair of the internal passages of the housing when the flow direction block is rotated around a rotation axis (X) relative to the housing, thus forming a first flow passage and a second flow passage, wherein the two clearances are adapted to allow a flow through the first flow passage to be controlled independently of a flow through the second flow passage by way of rotating the flow direction block, wherein each of the passages is in fluid communication with a respective port, a first port in connection with a suction line of a compressor, a second port in connection with an output line of the compressor, a third port in connection with a first heat exchanger and a fourth port in connection with a second heat exchanger.
Testing device for testing jack screws which are provided for assembling screw connections or screw points, wherein the testing device is provided for installation between a drive output of a jack screw to be tested and a screw point, wherein the testing device has a torsion element which, provided with a predetermined preload, is received in a main body and under the effect of a torque profile caused by a jack screw to be tested acting on the torsion element serves for imposing a spring characteristic of the torsion element on the torque profile of the jack screw; wherein the spring characteristic of the torsion element is established by a first detent position and a second detent position, wherein means for evaluating measured data that characterizes the torque profile of the jack screw are provided; wherein by means of the evaluated measured data and the spring characteristic imposed therein supporting points of the torque profile that correspond to the detent positions and establish the spring characteristic serve for evaluating a behaviour of the jack screw that deviates from the standard specification; wherein the torsion element under the predetermined preload is received in the main body in such a manner that the torsion element in the first detent position thereof, without the effect of any external force, by way of a detent face is set so as to impact on a detent face of the main body , and under the effect of an external force that overcomes the predetermined preload is movable from the first detent position in the direction of a second detent face (18") of the main body ; and wherein the torsion element is movable from the first detent position thereof up to the second detent position in which a second detent face (17") of the torsion element impacts the second detent face (18") of the main body .
A display method applicable in a display panel in which sub-pixels are arranged in a triangle-shaped arrangement manner, the display method comprises steps of: generating (S201) an original image comprising a plurality of first virtual pixels according to image information, each of the first virtual pixels including a plurality of first virtual sub-pixels of different colors, and the first virtual sub-pixels being arranged in a strip-shaped arrangement manner; and calculating (S202) a display component of each of a plurality of second virtual sub-pixels of different colors included in a second virtual pixel according to display components of three first virtual sub-pixels of a same color as a corresponding second virtual sub-pixel of the plurality of second virtual sub-pixels , the three first virtual sub-pixels of the same color being from two adjacent first virtual pixels in a row direction and from two adjacent first virtual pixels in a column direction, each first virtual sub-pixel and each sub-pixel of a same color having a same length in the column direction, and characterized in that each second virtual sub-pixel and each sub-pixel of a same color has a same length in the row direction and in the column direction; and wherein the method further comprises the step of: calculating a display component of each of the sub-pixels according to display components of each of the plurality of second virtual sub-pixels of the same color in two adjacent second virtual pixels in the row direction. generating (S201) an original image comprising a plurality of first virtual pixels according to image information, each of the first virtual pixels including a plurality of first virtual sub-pixels of different colors, and the first virtual sub-pixels being arranged in a strip-shaped arrangement manner; and calculating (S202) a display component of each of a plurality of second virtual sub-pixels of different colors included in a second virtual pixel according to display components of three first virtual sub-pixels of a same color as a corresponding second virtual sub-pixel of the plurality of second virtual sub-pixels , the three first virtual sub-pixels of the same color being from two adjacent first virtual pixels in a row direction and from two adjacent first virtual pixels in a column direction, each first virtual sub-pixel and each sub-pixel of a same color having a same length in the column direction, and characterized in that each second virtual sub-pixel and each sub-pixel of a same color has a same length in the row direction and in the column direction; and wherein the method further comprises the step of: calculating a display component of each of the sub-pixels according to display components of each of the plurality of second virtual sub-pixels of the same color in two adjacent second virtual pixels in the row direction.
An emergency vessel towing system comprising: a vessel attachment system configured to operatively connect to a vessel at sea, the vessel attachment system including a continuous bridle line and a hawser assembly having a hawser line , and a hawser bushing secured to a proximal end of the hawser line wherein the continuous bridle line is slidingly disposed through a central opening of the hawser bushing, wherein the continuous bridle line is configured to engage fittings on two sides of a foredeck of the vessel to distribute a load applied to the hawser line over the fittings on the two sides of the foredeck and to equalize the load distribution over the fittings on two sides of the foredeck independent of a position of the hawser bushing along the continuous bridle line; and a towing line detachably connected to the vessel attachment system in a towing position, wherein a proximal end of the towing line is detachably connected to a distal end of the hawser line in the towing position. a vessel attachment system configured to operatively connect to a vessel at sea, the vessel attachment system including a continuous bridle line and a hawser assembly having a hawser line , and a hawser bushing secured to a proximal end of the hawser line wherein the continuous bridle line is slidingly disposed through a central opening of the hawser bushing, wherein the continuous bridle line is configured to engage fittings on two sides of a foredeck of the vessel to distribute a load applied to the hawser line over the fittings on the two sides of the foredeck and to equalize the load distribution over the fittings on two sides of the foredeck independent of a position of the hawser bushing along the continuous bridle line; and a towing line detachably connected to the vessel attachment system in a towing position, wherein a proximal end of the towing line is detachably connected to a distal end of the hawser line in the towing position.
A cooling system for cooling an electric generator having a stator , a rotor and one or more superconducting coils , wherein the cooling system comprises: at least a first cooling unit for cooling the stator and/or the rotor , at least a second cooling unit with a second cooling medium being circulated in the second cooling unit , the second cooling medium being nitrogen (N) or helium (He)for cooling the superconducting coils , the second cooling unit being thermally connected to the first cooling unit , the first cooling unit providing a hot source for the second cooling unit , characterized in that the first cooling unit is connected to an ambient environment, providing a hot source for the first cooling unit , a first cooling medium being circulated in the first cooling unit , the first cooling medium exchanging thermal energy with the ambient environment in the first cooling unit , and the second cooling medium exchanging thermal energy with the first cooling medium in the second cooling unit . at least a first cooling unit for cooling the stator and/or the rotor , at least a second cooling unit with a second cooling medium being circulated in the second cooling unit , the second cooling medium being nitrogen (N) or helium (He)for cooling the superconducting coils , the second cooling unit being thermally connected to the first cooling unit , the first cooling unit providing a hot source for the second cooling unit , characterized in that the first cooling unit is connected to an ambient environment, providing a hot source for the first cooling unit , a first cooling medium being circulated in the first cooling unit , the first cooling medium exchanging thermal energy with the ambient environment in the first cooling unit , and the second cooling medium exchanging thermal energy with the first cooling medium in the second cooling unit .
Assembly for medical use for administering a product to a patient, the assembly comprising a tube and a connector designed to be attached to an end of the tube , the connector having a body and an interface zone at one of the ends of the body , the interface zone comprising: - an appendage designed to be inserted into the tube , and - a skirt surrounding the appendage in order to define a groove for receiving the tube between the appendage and the skirt , the appendage and the skirt being in one piece and integrally connected, the dimensions of the appendage being adapted to the dimensions of the tube , and the skirt comprising a frustoconical inner face opposite the appendage , the diameter of the inner face of the skirt increasing in the direction of its free end, characterized in that the external diameter of the appendage is greater than the internal diameter of the tube at its end nearest the body , in such a way as to exert a set of forces tending to dilate the tube , and in that the internal diameter of the skirt is less than the external diameter of the tube at its end nearest the body , in such a way as to exert a set of forces tending to compress the tube . - an appendage designed to be inserted into the tube , and - a skirt surrounding the appendage in order to define a groove for receiving the tube between the appendage and the skirt ,
A composite material for shielding electromagnetic radiation, said material containing a thermoplastic, electrically non-conductive polymer, a nanocarbon material and nanoparticles, characterised in that the composite material comprises: • 88 - 99.88 wt% of the thermoplastic, electrically non-conductive polymer; • 0.1 - 10 wt% of the nanocarbon material, which is in form of flakes having a diameter to thickness ratio higher than 3, the thickness of the flakes not exceeding 30 nm and the diameter being of 100 to 5000 nm, • 0.01 - 1 wt% of dielectric nanoparticles introducing a loss unrelated to electrical conductivity in a given frequency range, i.e. unrelated to the dispersion of an electromagnetic wave on free carriers, • 0.01 - 1 wt% of an auxiliary material which allows to control the dispersion of the nanocarbon material and the dielectric nanoparticles in a polymer matrix and/or which can change the properties of the nanocarbon material and the dielectric nanoparticles, wherein the composite material is in form of a homogeneous mixture. • 88 - 99.88 wt% of the thermoplastic, electrically non-conductive polymer; • 0.1 - 10 wt% of the nanocarbon material, which is in form of flakes having a diameter to thickness ratio higher than 3, the thickness of the flakes not exceeding 30 nm and the diameter being of 100 to 5000 nm, • 0.01 - 1 wt% of dielectric nanoparticles introducing a loss unrelated to electrical conductivity in a given frequency range, i.e. unrelated to the dispersion of an electromagnetic wave on free carriers, • 0.01 - 1 wt% of an auxiliary material which allows to control the dispersion of the nanocarbon material and the dielectric nanoparticles in a polymer matrix and/or which can change the properties of the nanocarbon material and the dielectric nanoparticles,
A fluidic delivery device for a inkjet printer device, comprising: a fluid reservoir , containing a fluid; and a first body and a second body located in the fluid reservoir , wherein the first body and the second body are fluid permeable and compressible, the first body has an effective density greater than the second body , wherein the fluid reservoir is configured to have an upper reservoir portion and a lower reservoir portion that is contiguous with the upper reservoir portion , wherein the first body is located in the lower reservoir portion and the second body is located in the upper reservoir portion, the device further comprising: a dispensing pool area having a volume below and segregated from the first body for pooling of the fluid; a fluid ejector in flow communication for receiving the fluid from the dispensing pool area for ejection of the fluid from the device ; and characterized by further comprising: an external grate encompassing an external portion of the fluid ejector , wherein the grate has open areas and a rib-like structure. a fluid reservoir , containing a fluid; and a first body and a second body located in the fluid reservoir , wherein the first body and the second body are fluid permeable and compressible, the first body has an effective density greater than the second body , wherein the fluid reservoir is configured to have an upper reservoir portion and a lower reservoir portion that is contiguous with the upper reservoir portion , wherein the first body is located in the lower reservoir portion and the second body is located in the upper reservoir portion, the device further comprising: a dispensing pool area having a volume below and segregated from the first body for pooling of the fluid; a fluid ejector in flow communication for receiving the fluid from the dispensing pool area for ejection of the fluid from the device ; and characterized by further comprising: an external grate encompassing an external portion of the fluid ejector , wherein the grate has open areas and a rib-like structure. a dispensing pool area having a volume below and segregated from the first body for pooling of the fluid; a fluid ejector in flow communication for receiving the fluid from the dispensing pool area for ejection of the fluid from the device ; and characterized by further comprising: an external grate encompassing an external portion of the fluid ejector , wherein the grate has open areas and a rib-like structure.
A system for characterising a fluid sample, said system comprising: a first sample inlet channel configured to receive a fluid sample; a first plurality of valves each of said valves being configured to receive fluid from said first inlet channel; a plurality of fluid characterising modules , each of said characterising modules being configured to receive fluid from one of said valves (121; 122) and to output characterisation data, said plurality of fluid characterising modules comprising a plurality of different types of fluid characterising module; and a controller in communication with said valves, said controller being adapted to control the position of each of said valves in accordance with a characterisation program wherein said system comprises one or more further inlet channels , and one or more further respective pluralities of valves each further plurality of valves being configured to receive fluid from a respective further inlet channel , wherein each of said characterising modules is coupled to receive fluid via one of said valves from said first inlet channel and via one valve of each further plurality of valves from each said respective further inlet channel such that by operation of said valves a fluid sample may by conveyed from any said inlet channel to any said characterising module. a first sample inlet channel configured to receive a fluid sample; a first plurality of valves each of said valves being configured to receive fluid from said first inlet channel; a plurality of fluid characterising modules , each of said characterising modules being configured to receive fluid from one of said valves (121; 122) and to output characterisation data, said plurality of fluid characterising modules comprising a plurality of different types of fluid characterising module; and a controller in communication with said valves, said controller being adapted to control the position of each of said valves in accordance with a characterisation program wherein said system comprises one or more further inlet channels , and one or more further respective pluralities of valves each further plurality of valves being configured to receive fluid from a respective further inlet channel , wherein each of said characterising modules is coupled to receive fluid via one of said valves from said first inlet channel and via one valve of each further plurality of valves from each said respective further inlet channel such that by operation of said valves a fluid sample may by conveyed from any said inlet channel to any said characterising module.
Cell culture bottle comprising • a vessel comprising three sections: a bottom section , a lid section and a cylinder section arranged therebetween, • an Archimedean screw arranged internally in the cylinder region of the vessel and having a central tube through which liquid can flow arranged along its central axis, • at least one wall arranged concentrically around the central tube and extending over the entire cylindrical region of the vessel , characterised in that the cell culture flask is formed in one piece and wherein the central tube is formed to have a first opening on the outside of the vessel in the lid region and a second opening in the interior of the vessel on the underside of the cylinder region and wherein the Archimedean screw is integrally connected to the cylinder region of the vessel and the at least one wall , wherein the Archimedean screw and the at least one wall are arranged such that, upon rotation of the cell culture flask , a fluid can pass along the Archimedean screw from the underside of the cylinder portion into the lid portion of the vessel . • a vessel comprising three sections: a bottom section , a lid section and a cylinder section arranged therebetween, • an Archimedean screw arranged internally in the cylinder region of the vessel and having a central tube through which liquid can flow arranged along its central axis, • at least one wall arranged concentrically around the central tube and extending over the entire cylindrical region of the vessel ,
A transplant fish obtainable by a transplant fish production method comprising: selecting a donor fish species; selecting first and second fish species; producing a sterile hybrid fish species of the selected first fish species and second fish species; and transplanting reproductive cells of the donor fish species into the produced sterile hybrid fish species; wherein the donor fish species is selected from the Scombridae family; and wherein the first and second fish species are selected from species different from the donor fish species among species selected from the Sardini tribe, such as the Gymnosarda genus and Sarda genus; the Scomberomorini tribe, such as the Acanthocybium genus and Scomberomorus genus; the Scombrini tribe, such as the Scomber genus and Rastrelliger genus; and the Thunnini tribe, such as the Auxis genus, Euthynnus genus, Katsuwonus genus, and Thunnus genus. selecting a donor fish species; selecting first and second fish species; producing a sterile hybrid fish species of the selected first fish species and second fish species; and transplanting reproductive cells of the donor fish species into the produced sterile hybrid fish species; wherein the donor fish species is selected from the Scombridae family; and wherein the first and second fish species are selected from species different from the donor fish species among species selected from the Sardini tribe, such as the Gymnosarda genus and Sarda genus; the Scomberomorini tribe, such as the Acanthocybium genus and Scomberomorus genus; the Scombrini tribe, such as the Scomber genus and Rastrelliger genus; and the Thunnini tribe, such as the Auxis genus, Euthynnus genus, Katsuwonus genus, and Thunnus genus.
A system, comprising: an aircraft galley insert configured to be installed within an aircraft galley insert bay; a mounting plate attached to a rear of the aircraft galley insert; and a power connector assembly attached to the mounting plate , the power connector assembly comprising at least two compressible spring assemblies that are configured to compress as the power connector assembly is mated with a corresponding power connector assembly of the aircraft galley insert bay, wherein the power connector assembly is configured to self-align with the corresponding power connector assembly of the aircraft galley insert bay when the aircraft galley insert is installed within the aircraft galley insert bay; and characterized in the aircraft galley insert is an aircraft galley oven insert. an aircraft galley insert configured to be installed within an aircraft galley insert bay; a mounting plate attached to a rear of the aircraft galley insert; and a power connector assembly attached to the mounting plate , the power connector assembly comprising at least two compressible spring assemblies that are configured to compress as the power connector assembly is mated with a corresponding power connector assembly of the aircraft galley insert bay, wherein the power connector assembly is configured to self-align with the corresponding power connector assembly of the aircraft galley insert bay when the aircraft galley insert is installed within the aircraft galley insert bay; and characterized in the aircraft galley insert is an aircraft galley oven insert.