mhurhangee/ep-ind-claims huggingface dataset:
A reproduction device comprising: a readout unit configured to read out coded data of an extended video that is a video having a second brightness range (0-400%) that is wider than a first brightness range (0-100%), brightness characteristic information that represents a brightness characteristic of the extended video, and graphics data that is superimposed on the extended video and that has the first brightness range, from a recording medium that has recorded the coded data, the brightness characteristic information, and the graphics data; a first decoding unit configured to decode the coded data; a second decoding unit configured to decode the graphics data; a first conversion unit configured to convert a first pixel value of the graphics, obtained by decoding, to a second pixel value in the brightness characteristic of the extended video represented by the brightness characteristic information, the second pixel value representing brightness that is equivalent to brightness represented by the first pixel value in a brightness characteristic of the graphics, wherein each of the first pixel values of the graphics in the first brightness range (0-100%) is allocated to a second pixel value that is within the first brightness range (0-100%) in the brightness characteristic of the extended video; and a synthesis unit configured to synthesizes the extended video, the extended video being obtained by decoding the coded data, together with the graphics having the second pixel value. a readout unit configured to read out coded data of an extended video that is a video having a second brightness range (0-400%) that is wider than a first brightness range (0-100%), brightness characteristic information that represents a brightness characteristic of the extended video, and graphics data that is superimposed on the extended video and that has the first brightness range, from a recording medium that has recorded the coded data, the brightness characteristic information, and the graphics data; a first decoding unit configured to decode the coded data; a second decoding unit configured to decode the graphics data; a first conversion unit configured to convert a first pixel value of the graphics, obtained by decoding, to a second pixel value in the brightness characteristic of the extended video represented by the brightness characteristic information, the second pixel value representing brightness that is equivalent to brightness represented by the first pixel value in a brightness characteristic of the graphics, wherein each of the first pixel values of the graphics in the first brightness range (0-100%) is allocated to a second pixel value that is within the first brightness range (0-100%) in the brightness characteristic of the extended video; and a synthesis unit configured to synthesizes the extended video, the extended video being obtained by decoding the coded data, together with the graphics having the second pixel value.
An aerosol-generating device, comprising: - a battery, and - a heater for heating the battery, wherein one or both of the battery and the heater are movably mounted in the device, such that the battery and the heater are relatively movable towards each other between a near position and a distanced position, wherein the near position is different from the distanced position. - a battery, and - a heater for heating the battery,
A thermal energy storage facility (1, 61, 53) comprising a packed bed (5, 65, 81) having an essentially unconstrained outer region (7, 67) and a duct (3, 63, 82) communicating with an interior of the packed bed (5, 65, 81) and having an external fluid supply end (11, 71), the thermal energy storage facility being characterised in that the duct (3, 63, 82) has a heat exchange end region (13, 73) located within a central lower region of the packed bed (5, 65, 81) and has apertures (15, 75) over the heat exchange end region (13, 73) so as to permit heat transfer fluid at an elevated temperature travelling into the duct (3, 63, 82) via the fluid supply end (11, 71) to pass from the duct (3, 63, 82) to an interior of the packed bed (5, 65, 81) to heat the packed bed (5, 65, 81) from an inner region of the packed bed (5, 65, 81) outwards during a charge cycle, and, during a discharge cycle, permitting heat transfer fluid to be drawn through a charged packed bed (5, 65, 81) into the heat exchange end region (13, 73) of the duct (3, 63, 82) at an elevated temperature such that it exits the fluid supply end (11, 71) of the duct (3, 63, 82) in a heated condition.
Robot vacuum cleaner comprising a mobile base and a hand-held vacuum cleaner, a first means of reception being disposed between the mobile base and the hand-held vacuum cleaner in order to allow their engagement, one within the other, in order to vacuum a surface by means of the hand-held vacuum cleaner while the mobile base is in movement on this surface, said hand-held vacuum cleaner being extractable from said mobile base for its individual use, the hand-held vacuum cleaner comprises a set of rechargeable batteries configured in order to allow its power supply and that of the mobile base, characterised in that the vacuum cleaner comprises a first means of power connection (44a-44e, 46a-46e) disposed between the hand-held vacuum cleaner and the mobile base and positioned during said engagement, a docking station configured to be powered by an external source of electricity, a second means of reception being disposed between the mobile base and the docking station in order to allow the positioning of the mobile base on the docking station, a second means of electrical connection (4a, 4b, 17a, 17b) being disposed between the docking station and the mobile base and positioned during said positioning, a means of electrical connection (47a, 47b) being disposed between the first means of electrical connection (44a-44e, 46a-46e) and the second means of electrical connection (4a, 4b, 17a, 17b) in order to allow the set of batteries to be recharged while the hand-held vacuum cleaner is engaged on the mobile base and that the mobile base is positioned on the docking station.
Frost protection for an automatic hot drinks machine in a rail vehicle, - wherein the automatic hot drinks machine has a fresh water container, a pressure-increasing pump and a hot water boiler, - wherein the fresh water container is filled with fresh water which is provided and used for hot drinks preparation, - wherein the pressure-increasing pump is arranged between the fresh water container and the hot water boiler such that fresh water passes from the fresh water container via the pressure-increasing pump to the hot water boiler, - wherein the pressure-increasing pump is designed in such a way that fresh water fed to it is brought to a predetermined operating pressure for a desired hot drinks preparation, - wherein the hot water boiler is configured in such a way that it heats fresh water fed to it for the planned hot drinks preparation, - wherein a controllable first drainage valve is arranged between the fresh water container and the pressure-increasing pump and is connected in such a way that, when there is a risk of frost, the line system between the fresh water container and the pressure-increasing pump is emptied of fresh water, and - wherein a controllable second drainage valve is arranged between the pressure-increasing pump and the hot water boiler and is connected in such a way that, when there is a risk of frost, the line system between the pressure-increasing pump and the hot water boiler and also the contents of the hot water boiler are emptied of fresh water. - wherein the automatic hot drinks machine has a fresh water container, a pressure-increasing pump and a hot water boiler, - wherein the fresh water container is filled with fresh water which is provided and used for hot drinks preparation, - wherein the pressure-increasing pump is arranged between the fresh water container and the hot water boiler such that fresh water passes from the fresh water container via the pressure-increasing pump to the hot water boiler, - wherein the pressure-increasing pump is designed in such a way that fresh water fed to it is brought to a predetermined operating pressure for a desired hot drinks preparation, - wherein the hot water boiler is configured in such a way that it heats fresh water fed to it for the planned hot drinks preparation, - wherein a controllable first drainage valve is arranged between the fresh water container and the pressure-increasing pump and is connected in such a way that, when there is a risk of frost, the line system between the fresh water container and the pressure-increasing pump is emptied of fresh water, and - wherein a controllable second drainage valve is arranged between the pressure-increasing pump and the hot water boiler and is connected in such a way that, when there is a risk of frost, the line system between the pressure-increasing pump and the hot water boiler and also the contents of the hot water boiler are emptied of fresh water.
An isolated complex comprising a) a first monovalent antibody or monovalent antibody fragment that specifically binds to a first target and that is conjugated to a first member of a first hybridizing ss-L-DNA sequence pair at the C-terminal end, b) a second monovalent antibody or monovalent antibody fragment that specifically binds to a second target and that is conjugated to a first member of a second hybridizing ss-L-DNA sequence pair at the C-terminal end, and c) a ss-L-DNA-linker conjugated to the second member of the first hybridizing ss-L-DNA sequence pair and conjugated to the second member of the second hybridizing ss-L-DNA sequence pair, wherein the first and the second monovalent antibody or monovalent antibody fragment bind to non-overlapping epitopes, wherein the ss-L-DNA-linker has the optimal length for synergistic binding of the first and the second monovalent antibody or monovalent antibody fragment. a) a first monovalent antibody or monovalent antibody fragment that specifically binds to a first target and that is conjugated to a first member of a first hybridizing ss-L-DNA sequence pair at the C-terminal end, b) a second monovalent antibody or monovalent antibody fragment that specifically binds to a second target and that is conjugated to a first member of a second hybridizing ss-L-DNA sequence pair at the C-terminal end, and c) a ss-L-DNA-linker conjugated to the second member of the first hybridizing ss-L-DNA sequence pair and conjugated to the second member of the second hybridizing ss-L-DNA sequence pair,
Discharging valve of a cylinder, said cylinder consisting of an enclosed tank containing pressurized gas, said enclosed tank comprises an upper opening which is closed to pressure by means of an upper valve of the cylinder, said upper valve is suitable for passing from a closed position that keeps the gas pressure inside the enclosed tank to an open position that allows the release of the gas contained in the enclosed tank, said upper valve is constituted by a hollow body which comprises an internal cavity, said upper valve comprises a sealed shutter which is adapted to slide inside the internal cavity of the hollow body of the upper valve from a sealing position to a releasing position of the gas, the sealing position of the shutter corresponds to the closed position of the upper valve, the releasing position of the shutter corresponds to the open position of the upper valve, said hollow body of the upper valve comprises an upper wall, said discharging valve is mounted externally on said upper wall of said hollow body of said upper valve, said discharging valve consists of a hollow body comprising a hollow discharging spout and an internal cavity of the hollow body, said hollow body of the discharging valve comprises a lower portion adapted to be mounted with the upper wall of the hollow body of the upper valve, the discharging spout and the internal cavity of the hollow body of the discharging valve are adapted to allow the gas to be released from the tank of the cylinder when the upper valve is in the open position, wherein the discharging valve comprises a lever hinged at a fulcrum with an upper portion of the hollow body of the discharging valve, the discharging valve comprises a piston, said lever of the discharging valve presses said piston at a point at a distance from the fulcrum, said piston is adapted to press against the shutter to pass the shutter from the sealing position to the releasing position of the gas, the piston comprises an upper portion adapted to be engaged by the lever and a lower portion of the piston which is in contact with an upper portion of the shutter of the upper valve of the cylinder, characterized in that said discharging valve of a cylinder is for inflating balloons, said upper wall extends upward to form a hollow cylinder around an upper portion of the shutter, said upper portion of the shutter extends outward from the upper valve and the upper portion of the shutter is protected by the upper wall of the hollow body of the upper valve, said piston is slidably mounted inside the internal cavity of the hollow body of the discharging valve, said discharging valve consists of a molded plastic material.
Device for vehicle identification, comprising a license plate for a vehicle, wherein the license plate is at least partially made of electrically conductive material wherein the license plate is provided with a slot-shaped recess and provided with a transponder, particularly an RFID chip, wherein the transponder comprises two connections (12, 13), wherein the transponder is situated at the location of the slot-shaped recess, and wherein the connections (12, 13) of the transponder are inductively coupled on both sides of the slot-shaped recess to the material of the license plate, and wherein the recess is bounded by a circumferential edge.
A high voltage electric cable comprising: - at least one cable core (2a, 2b, 2c), - at least one cooling pipe (7a, 7b, 7c) for cooling the cable core, where the at least one cooling pipe comprises a polymer and is adapted for carrying a cooling liquid, and - a cable covering surrounding the at least one cable core and the at least one cooling pipe, wherein the electric cable comprises at least one heat conducting element (5a, 5b, 5c) surrounding the at least one cable core (2a, 2b, 2c), and arranged in thermal contact with the at least one cable core (2a, 2b, 2c) and the at least one cooling pipe (7a, 7b, 7c), wherein the at least one heat conducting element is a heat conducting first metallic layer (5a, 5b, 5c), characterized in that the electric cable further comprises a heat conducting second metallic layer (8a, 8b, 8c) surrounding the at least one cooling pipe (7a, 7b, 7c), and arranged in thermal contact with the at least one cooling pipe and the first metallic layer (5a, 5b, 5c). - at least one cable core (2a, 2b, 2c), - at least one cooling pipe (7a, 7b, 7c) for cooling the cable core, where the at least one cooling pipe comprises a polymer and is adapted for carrying a cooling liquid, and - a cable covering surrounding the at least one cable core and the at least one cooling pipe, wherein the electric cable comprises at least one heat conducting element (5a, 5b, 5c) surrounding the at least one cable core (2a, 2b, 2c), and arranged in thermal contact with the at least one cable core (2a, 2b, 2c) and the at least one cooling pipe (7a, 7b, 7c), wherein the at least one heat conducting element is a heat conducting first metallic layer (5a, 5b, 5c), characterized in that the electric cable further comprises a heat conducting second metallic layer (8a, 8b, 8c) surrounding the at least one cooling pipe (7a, 7b, 7c), and arranged in thermal contact with the at least one cooling pipe and the first metallic layer (5a, 5b, 5c).
An optical differential path length gas detector comprising: a light source for producing a first light; a light filter disposed proximally to the light source; a beam-splitting optic configured to split the first light into two pathways, comprising a first pathway of a second light and a second pathway of a third light, after having passed through the light filter; a first photodetector configured to measure the second light, wherein the first photodetector is arranged such that the path followed by the second light has a shorter pathlength than the path followed by the third light; a second photodetector configured to measure the third light, wherein the second photodetector is arranged such that the path followed by the third light has a longer pathlength than the path followed by the second light; and a circuit configured to calculate a ratio of measurement signals from the first and second photodetectors (730, 750), wherein the circuit is further configured to directly determine a concentration of gas based on the ratio of measurement signals and knowledge of the pathlengths of the paths followed by the second and third light (720, 740); wherein the beam-splitting optic comprises a first three-dimensional conic-section optic configured to split the first light into the two pathways; and the optical differential path length gas detector further comprises a second three-dimensional conic-section optic configured to direct the third light to the second photodetector. a light source for producing a first light; a light filter disposed proximally to the light source; a beam-splitting optic configured to split the first light into two pathways, comprising a first pathway of a second light and a second pathway of a third light, after having passed through the light filter; a first photodetector configured to measure the second light, wherein the first photodetector is arranged such that the path followed by the second light has a shorter pathlength than the path followed by the third light; a second photodetector configured to measure the third light, wherein the second photodetector is arranged such that the path followed by the third light has a longer pathlength than the path followed by the second light; and a circuit configured to calculate a ratio of measurement signals from the first and second photodetectors (730, 750), wherein the circuit is further configured to directly determine a concentration of gas based on the ratio of measurement signals and knowledge of the pathlengths of the paths followed by the second and third light (720, 740); wherein the beam-splitting optic comprises a first three-dimensional conic-section optic configured to split the first light into the two pathways; and the optical differential path length gas detector further comprises a second three-dimensional conic-section optic configured to direct the third light to the second photodetector.
A panned sugar shelled confectionery having a shaped solid confectionary center of a fat based material which is coated in a panned sugar shell, wherein the solid confectionary center is provided with at least two hollow sections that extend through a portion of the solid confectionary center, wherein ends of the at least two hollow sections are sealed by the fat based material, wherein the hollow sections reduce the density of the solid center by 5% to 25%, and wherein the at least two hollow sections are optionally filled with a filling.
A method for making a refrigerating cell comprising an enclosure whose walls delimit at least partially a zone for storing food products, the method comprising the steps of: - making the walls of the enclosure by die forming; - subsequently making at least one through hole passing through at least one of the walls of the enclosure; characterized in that the step of making the walls of the enclosure by die forming comprises making by die forming visual reference means that identify a first zone where the through hole is made. - making the walls of the enclosure by die forming; - subsequently making at least one through hole passing through at least one of the walls of the enclosure; characterized in that the step of making the walls of the enclosure by die forming comprises making by die forming visual reference means that identify a first zone where the through hole is made.
A drive system of a syringe pump, comprising: an outer sleeve, having an inner wall provided with a resistive sheet slot and a conductive sheet slot, both of which slot extending axially; a resistive sheet provided in the resistive sheet slot, and a conductive sheet provided in the conductive sheet slot; an injection pushrod slidably provided in the outer sleeve, wherein a hermetic seal is maintained between the injection pushrod and the inner wall of the outer sleeve by a sealing ring provided between a head of the outer sleeve and the injection pushrod, and a cavity having an opening is provided on the injection pushrod, with the opening of the cavity being provided at a tail end of the injection pushrod; an elastic conductive contact sheet fixedly provided on the injection pushrod, with one end of the elastic conductive contact sheet being in contact with the conductive sheet and the other end being in contact with the resistive sheet; and a drive device provided in the cavity and driving the injection pushrod to move forth and back. an outer sleeve, having an inner wall provided with a resistive sheet slot and a conductive sheet slot, both of which slot extending axially; a resistive sheet provided in the resistive sheet slot, and a conductive sheet provided in the conductive sheet slot; an injection pushrod slidably provided in the outer sleeve, wherein a hermetic seal is maintained between the injection pushrod and the inner wall of the outer sleeve by a sealing ring provided between a head of the outer sleeve and the injection pushrod, and a cavity having an opening is provided on the injection pushrod, with the opening of the cavity being provided at a tail end of the injection pushrod; an elastic conductive contact sheet fixedly provided on the injection pushrod, with one end of the elastic conductive contact sheet being in contact with the conductive sheet and the other end being in contact with the resistive sheet; and a drive device provided in the cavity and driving the injection pushrod to move forth and back.
A clot removal device for removing a clot from a body vessel, the clot removal device comprising: an elongated member sized to traverse vasculature and having a proximal end and a distal end, the elongated member comprising a longitudinal axis; and an engagement structure connected to the distal end of the elongated member, the engagement structure comprising a plurality of pinching cells connected to each other, the plurality of pinching cells being configured to engage clot in an expanded deployed configuration and to pinch the clot upon actuation to a clot pinching configuration, a first pinching cell of the plurality of pinching cells being connected to a second pinching cell of the plurality of pinching cells such that the second pinching cell is rotatable respective the first pinching cell substantially about the longitudinal axis; characterised in that the first pinching cell comprises a collar and the second pinching cell comprises a mating connector configured to rotatably connect with the collar. an elongated member sized to traverse vasculature and having a proximal end and a distal end, the elongated member comprising a longitudinal axis; and an engagement structure connected to the distal end of the elongated member, the engagement structure comprising a plurality of pinching cells connected to each other, the plurality of pinching cells being configured to engage clot in an expanded deployed configuration and to pinch the clot upon actuation to a clot pinching configuration, a first pinching cell of the plurality of pinching cells being connected to a second pinching cell of the plurality of pinching cells such that the second pinching cell is rotatable respective the first pinching cell substantially about the longitudinal axis; characterised in that the first pinching cell comprises a collar and the second pinching cell comprises a mating connector configured to rotatably connect with the collar.