mhurhangee/patent-ind-claim-en huggingface dataset:
Facility for storing a liquefied gas including a supporting structure and a sealed and thermally insulating tank arranged in the supporting structure , said sealed and thermally insulating tank having an internal space, the supporting structure comprising an upper supporting wall and the tank comprising a ceiling wall secured to the upper supporting wall , the ceiling wall comprising, in a thickness direction from the outside to the inside of the tank, at least one thermally insulating barrier and at least one sealing membrane supported by the thermally insulating barrier and intended to be in contact with the liquefied gas contained in the tank, the storage facility comprising a dome structure passing through an opening made in the ceiling wall and in the upper supporting wall, , the dome structure including a barrel which extends in the thickness direction, said barrel including a lower end which is oriented towards the internal space of the tank and at least one closure plate which is positioned facing the lower end of the barrel in such a way as to cover same, the closure plate including at least one hole , the storage facility including at least one pipe which is intended to convey liquefied gas, said pipe passing through the dome structure and passing through the hole made in the closure plate . the storage facility comprising a dome structure passing through an opening made in the ceiling wall and in the upper supporting wall, , the dome structure including a barrel which extends in the thickness direction, said barrel including a lower end which is oriented towards the internal space of the tank and at least one closure plate which is positioned facing the lower end of the barrel in such a way as to cover same, the closure plate including at least one hole , the storage facility including at least one pipe which is intended to convey liquefied gas, said pipe passing through the dome structure and passing through the hole made in the closure plate .
Electrochemical device for purifying a fluid, in particular waste water or sludge, by oxidation of the organic compounds contained in said fluid, said electrochemical device comprising an electrochemical filter membrane, said membrane comprising: - a metal support which is an open-pore foam having an overall open porosity of between 20 and 90% and a median pore diameter, by volume, of between 20 micrometers and 10 millimeters, said support being permeable to said fluid, - a coating layer on said support comprising or preferably consisting of a titanium oxide of generic formula TiO x , x being between 1.5 and 1.9. - a metal support which is an open-pore foam having an overall open porosity of between 20 and 90% and a median pore diameter, by volume, of between 20 micrometers and 10 millimeters, said support being permeable to said fluid, - a coating layer on said support comprising or preferably consisting of a titanium oxide of generic formula TiO x , x being between 1.5 and 1.9.
Inserting device for inserting the contents of an envelope into an envelope , the inserting device K having an envelope tray for empty envelopes , transport elements for transporting the envelopes from the envelope tray to a packing pocket on which the envelopes are filled, a feed device for feeding the envelope contents to the packing pocket and in the packing pocket , as well as removal elements for the further conveyance of the envelope filled with the envelope content , wherein the transport elements comprise an envelope tunnel being mounted on the inserting device K so as to be movable about a pivot axis and having an upper tunnel guide and a lower tunnel guide for aligning the envelope with the packing pocket , and pivoting means that are operatively connected to the envelope tunnel, as well as at least one drivable envelope feed roller , wherein the envelope tunnel comprises an entrance area , adjoining it downwards a straight guide area , and adjoining it downwards a curve , characterized in that the envelope feed roller in a first position, which the envelope tunnel and the envelope feed roller take in relation to the packing pocket , is positioned from below against the downstream end region of the upper tunnel guide and a lower edge of an end edge of the end area is offset downwards in relation to a plane defined by a guide surface of the packing pocket, wherein the tunnel guides of the envelope tunnel are formed in parallel in the guide area and in the area of the curve .
A method for processing encoded video data, the method comprising: receiving a file associated with encoded video data, wherein the encoded video data is stored in the file according to a file format, wherein the encoded video data includes two or more layers, wherein more than one layer includes an end-of-bitstream network abstraction layer, NAL, unit, and wherein the two or more layers are stored in two or more tracks in the file; determining a first layer from among the two or more layers, wherein the first layer includes a first end-of-bitstream NAL unit, wherein the first layer is determined to be a highest layer, among the two or more layers, that includes an end-of-bitstream NAL unit; identifying a set of layers from among the two or more layers; and generating a reconstructed bitstream based on the first end-of-bitstream NAL unit and a plurality of access units, wherein the plurality of access units include one or more samples from the set of layers, and wherein a last access unit in the reconstructed bitstream includes the first end-of-bitstream NAL unit. receiving a file associated with encoded video data, wherein the encoded video data is stored in the file according to a file format, wherein the encoded video data includes two or more layers, wherein more than one layer includes an end-of-bitstream network abstraction layer, NAL, unit, and wherein the two or more layers are stored in two or more tracks in the file; determining a first layer from among the two or more layers, wherein the first layer includes a first end-of-bitstream NAL unit, wherein the first layer is determined to be a highest layer, among the two or more layers, that includes an end-of-bitstream NAL unit; identifying a set of layers from among the two or more layers; and generating a reconstructed bitstream based on the first end-of-bitstream NAL unit and a plurality of access units, wherein the plurality of access units include one or more samples from the set of layers, and wherein a last access unit in the reconstructed bitstream includes the first end-of-bitstream NAL unit.
An adapter comprising: a first receptacle formed by a first housing; a second receptacle formed by a second housing; a plurality of contacts having first contacting portions in the first receptacle and second contacting portions in the second receptacle; characterized in that the adapter further comprises: a first side ground contact ; and a second side ground contact ; wherein a first contacting portion of the first side ground contact and a first contacting portion of the second side ground contact provide a first retention force on a first connector insert when the first connector insert is inserted in the first receptacle ; wherein a second contacting portion of the first side ground contact and a second contacting portion of the second side ground contact provide a second retention force on a second connector insert when the second connector insert is inserted in the second receptacle ; and wherein the first contacting portion of the first side ground contact and the first contacting portion of the second side ground contact extend a greater distance into the first receptacle than the second contacting portion of the first side ground contact and the second contacting portion of the second side ground contact extend into the second receptacle such that the first retention force is greater than the second retention force. a first receptacle formed by a first housing; a second receptacle formed by a second housing; a plurality of contacts having first contacting portions in the first receptacle and second contacting portions in the second receptacle; characterized in that the adapter further comprises: a first side ground contact ; and a second side ground contact ; a first side ground contact ; and a second side ground contact ; wherein a first contacting portion of the first side ground contact and a first contacting portion of the second side ground contact provide a first retention force on a first connector insert when the first connector insert is inserted in the first receptacle ; wherein a second contacting portion of the first side ground contact and a second contacting portion of the second side ground contact provide a second retention force on a second connector insert when the second connector insert is inserted in the second receptacle ; and wherein the first contacting portion of the first side ground contact and the first contacting portion of the second side ground contact extend a greater distance into the first receptacle than the second contacting portion of the first side ground contact and the second contacting portion of the second side ground contact extend into the second receptacle such that the first retention force is greater than the second retention force.
A super-micro bubble generation device comprising: a compressor for delivering gas under pressure, and a bubble generation medium for discharging the gas, which has been delivered under pressure, as super-micro bubbles into liquid, wherein the said bubble generation medium consists of a high-density compound which is an electrically conductive substance, and wherein said bubble generation medium is porous having a lot of tiny pores of several μm to several dozen μm in diameter, and further comprising a liquid jetting device for jetting liquid in the direction substantially perpendicular to the direction in which the bubble generation medium discharges the super-micro bubbles, said liquid being the same kind of liquid as the liquid into which the super-micro bubbles are discharged, characterised in that a bubble guide groove , which is formed around the bubble generation medium , is provided downstream of the liquid flow jetted from the liquid jetting device , the bubble guide groove is formed into an arc-like shape in the cross section view, located downstream of the liquid flow and guides the direction of super-micro bubbles movement. a compressor for delivering gas under pressure, and a bubble generation medium for discharging the gas, which has been delivered under pressure, as super-micro bubbles into liquid, wherein the said bubble generation medium consists of a high-density compound which is an electrically conductive substance, and wherein said bubble generation medium is porous having a lot of tiny pores of several μm to several dozen μm in diameter, and further comprising a liquid jetting device for jetting liquid in the direction substantially perpendicular to the direction in which the bubble generation medium discharges the super-micro bubbles, said liquid being the same kind of liquid as the liquid into which the super-micro bubbles are discharged, characterised in that a bubble guide groove , which is formed around the bubble generation medium , is provided downstream of the liquid flow jetted from the liquid jetting device , the bubble guide groove is formed into an arc-like shape in the cross section view, located downstream of the liquid flow and guides the direction of super-micro bubbles movement.
A ceiling fan comprising: a shaft to be coupled to a ceiling or a wall surface; a motor assembly provided to surround the shaft; a bridge support coupled to a lower portion of the shaft; an electronic unit supported by the bridge support and positioned under the bridge support; a housing cover receiving the motor assembly and the electronic unit; a main blade rotatably coupled to the housing cover; wherein the shaft is positioned on a central axis of the housing cover; characterised by a sub-blade disposed inside the main blade. a shaft to be coupled to a ceiling or a wall surface; a motor assembly provided to surround the shaft; a bridge support coupled to a lower portion of the shaft; an electronic unit supported by the bridge support and positioned under the bridge support; a housing cover receiving the motor assembly and the electronic unit; a main blade rotatably coupled to the housing cover; wherein the shaft is positioned on a central axis of the housing cover; characterised by a sub-blade disposed inside the main blade.
An exercise machine , comprising: a support frame ; at least one weight rack configured to receive added weight; a weight ratio arrangement engaged with the support frame , the at least one weight rack , and a first attachment extending from the support frame, the weight ratio arrangement comprising: a first exercise cable having a first end and a second end, the first end being connected to the first attachment and the second end being connected to a portion of the exercise machine ; at least two movable pulley blocks , comprising a top movable pulley block and a bottom movable pulley block each movable pulley block including at least one pulley , wherein the at least one weight rack is attached to and configured to move with the top movable pulley block ; and a locking mechanism movable between a locked position in which only the top movable pulley block is movable and an unlocked position in which the two movable pulley blocks are movable, wherein the first exercise cable is operatively connected to the at least two movable pulley blocks , characterized in that the at least one weight rack is located on the top movable pulley block in order to move with the top movable pulley block . a support frame ; at least one weight rack configured to receive added weight; a weight ratio arrangement engaged with the support frame , the at least one weight rack , and a first attachment extending from the support frame, the weight ratio arrangement comprising: a first exercise cable having a first end and a second end, the first end being connected to the first attachment and the second end being connected to a portion of the exercise machine ; at least two movable pulley blocks , comprising a top movable pulley block and a bottom movable pulley block each movable pulley block including at least one pulley , wherein the at least one weight rack is attached to and configured to move with the top movable pulley block ; and a locking mechanism movable between a locked position in which only the top movable pulley block is movable and an unlocked position in which the two movable pulley blocks are movable, wherein the first exercise cable is operatively connected to the at least two movable pulley blocks , a first exercise cable having a first end and a second end, the first end being connected to the first attachment and the second end being connected to a portion of the exercise machine ; at least two movable pulley blocks , comprising a top movable pulley block and a bottom movable pulley block each movable pulley block including at least one pulley , wherein the at least one weight rack is attached to and configured to move with the top movable pulley block ; and a locking mechanism movable between a locked position in which only the top movable pulley block is movable and an unlocked position in which the two movable pulley blocks are movable, wherein the first exercise cable is operatively connected to the at least two movable pulley blocks , characterized in that the at least one weight rack is located on the top movable pulley block in order to move with the top movable pulley block .
A luminescent coating system, comprising, in this sequence, a) a rearward electrically conductive layer, b) a dielectric luminescent layer, c) a frontward electrically conductive transparent or translucent layer and d) an electrically insulating barrier layer, wherein at least one of the layers a), b), c) and d), in particular all these layers, can be obtained or are applied by means of brushes, rollers, in particular paint rollers, spatulas, trowels and/or coating knives, wherein the dielectric luminescent layer b) comprises an electrically insulating rearward dielectric layer b1), containing electrically non-conductive binders and electrically non-conductive fillers with a permittivity of at least 5, and an in particular electrically insulating frontward luminescent layer b2), consisting of or containing at least one binder, in particular an alkyd resin, epoxy resin, acrylic resin and/or polyurethane binder, and at least one electroluminescent particulate material, in particular zinc sulphide, wherein the rearward dielectric layer b1) comprising the at least one binder and the at least one filler has a pigment volume concentration (PVC) below the critical pigment volume concentration (CPVC), preferably at least 5 per cent and particularly preferably at least 10 per cent below the critical pigment volume concentration, wherein the rearward electrically conductive layer a) is formed from a system consisting of or containing at least one binder and at least one electrically conductive, carbon-based material, wherein the rearward electrically conductive layer a) has a pigment volume concentration (PVC) above the critical pigment volume concentration (CPVC) and wherein, in addition to at least one of the layers a), c) and d) or in addition to all layers a), c) and d), at least one of layers b1) and b2), in particular both layers, can be obtained or is/are applied by means of brushes, rollers, in particular paint rollers, spatulas, trowels and/or coating knives. a) a rearward electrically conductive layer, b) a dielectric luminescent layer, c) a frontward electrically conductive transparent or translucent layer and d) an electrically insulating barrier layer, wherein
A method for determining regional compliance C.REG i of a lung in spontaneous breathing, wherein the following steps are performed: - determining a lung extensibility value C.M by triggering an inspiratory maneuver, as well as either by measuring a compliance of the entire lung or by measuring a surrogate for the compliance of the entire lung, - detecting an electrical impedance distribution along at least one two-dimensional section through a human thorax by means of an apparatus for electrical impedance tomography, - dividing the detected electrical impedance distribution at various points in time into a plurality of BIT pixels, characterized by : - determining an end-expiratory electrical impedance Z.EXSP of each of the EIT pixels and an end-inspiratory electrical impedance Z.INSP of each of the EIT pixels, - determining an impedance difference ΔZ of each of the EIT pixels by forming a difference between the end-inspiratory electrical impedance Z.INSP and the end-expiratory electrical impedance Z.EXSP, - providing multiple impedance value ranges and assigning the EIT pixels to the impedance value ranges as a function of the respective impedance difference ΔZ of the EIT pixels, - determining the regional compliance C.REG i for specific EIT pixels that are assigned to an impedance value range i, as a function of a frequency distribution of all EIT pixels over the impedance value ranges and as a function of the lung extensibility value C.M. - determining a lung extensibility value C.M by triggering an inspiratory maneuver, as well as either by measuring a compliance of the entire lung or by measuring a surrogate for the compliance of the entire lung, - detecting an electrical impedance distribution along at least one two-dimensional section through a human thorax by means of an apparatus for electrical impedance tomography, - dividing the detected electrical impedance distribution at various points in time into a plurality of BIT pixels, characterized by : - determining an end-expiratory electrical impedance Z.EXSP of each of the EIT pixels and an end-inspiratory electrical impedance Z.INSP of each of the EIT pixels, - determining an impedance difference ΔZ of each of the EIT pixels by forming a difference between the end-inspiratory electrical impedance Z.INSP and the end-expiratory electrical impedance Z.EXSP, - providing multiple impedance value ranges and assigning the EIT pixels to the impedance value ranges as a function of the respective impedance difference ΔZ of the EIT pixels, - determining the regional compliance C.REG i for specific EIT pixels that are assigned to an impedance value range i, as a function of a frequency distribution of all EIT pixels over the impedance value ranges and as a function of the lung extensibility value C.M.
Method for wrapping and sealing a flexible sheet over an insert to produce a pack for preparing a food or beverage product from one or more ingredients; the pack comprising an insert and a container made from the flexible sheet folded to store the one or more ingredients, the flexible sheet being arranged overwrapping and matching the shape of the insert in its entirety except for the part of the insert in direct communication with the inner volume of the container ; the method comprising the following steps: - holding the insert so that it is substantially perpendicular with respect to the flexible sheet; - moving the insert towards the flexible sheet, until it touches a bottom sealing tool ; - moving at least two side sealing tools towards the insert ; - characterized in that the method further comprises the step of: - applying by the bottom sealing tool and by the side sealing tools a certain required pressure and temperature to achieve a tight sealing of the flexible sheet over the entirety of the insert except for the part of it in direct communication with the inner volume of the container . the pack comprising an insert and a container made from the flexible sheet folded to store the one or more ingredients, the flexible sheet being arranged overwrapping and matching the shape of the insert in its entirety except for the part of the insert in direct communication with the inner volume of the container ; the method comprising the following steps: - holding the insert so that it is substantially perpendicular with respect to the flexible sheet; - moving the insert towards the flexible sheet, until it touches a bottom sealing tool ; - moving at least two side sealing tools towards the insert ; - characterized in that the method further comprises the step of: - applying by the bottom sealing tool and by the side sealing tools a certain required pressure and temperature to achieve a tight sealing of the flexible sheet over the entirety of the insert except for the part of it in direct communication with the inner volume of the container . - holding the insert so that it is substantially perpendicular with respect to the flexible sheet; - moving the insert towards the flexible sheet, until it touches a bottom sealing tool ; - moving at least two side sealing tools towards the insert ; - characterized in that the method further comprises the step of: - applying by the bottom sealing tool and by the side sealing tools a certain required pressure and temperature to achieve a tight sealing of the flexible sheet over the entirety of the insert except for the part of it in direct communication with the inner volume of the container .