mhurhangee/patent-ind-claim-en huggingface dataset:
Method for shredding and recycling used big bags consisting of a continuous inner polyethylene bag and an outer woven polypropylene envelope, comprising at least the following steps in the following order: - at least one big bag is compacted to a thickness of less than 20 cm; - said at least one compacted big bag is transported to a shredding unit, and - said at least one compacted big bag is shredded at a shredding unit, the transportation speed of said compacted big bag to the shredding unit and the cutting frequency of the latter being such that between 100 and 1000 cuts/m are applied to said compacted big bag(s), so as to obtain, on the one hand, polyethylene strips from the inner bag, the strips having a width of between 1 and 10 mm and a length of up to 1000 mm, and, on the other hand, fragments of the outer polypropylene envelope in the form of partially unwoven pieces and filaments having a width of 1 to 2 mm and a length of up to 500 mm; - said polyethylene strips are separated from the polypropylene fragments by shaking and a first fraction of polypropylene fragments and a second fraction of polyethylene strips are obtained, the latter being treated by performing a second polypropylene strip shredding process; - said two fractions are cleaned by performing, on each of the fractions: ∘ at least one aeraulic separation; ∘ dedusting; ∘ washing with water; - a first extruder is supplied with said first cleaned fraction of polypropylene fragments in order to obtain polypropylene granules and a second extruder is supplied with said second cleaned fraction of shredded polyethylene strips in order to obtain polyethylene granules. - at least one big bag is compacted to a thickness of less than 20 cm; - said at least one compacted big bag is transported to a shredding unit, and - said at least one compacted big bag is shredded at a shredding unit, the transportation speed of said compacted big bag to the shredding unit and the cutting frequency of the latter being such that between 100 and 1000 cuts/m are applied to said compacted big bag(s), so as to obtain, on the one hand, polyethylene strips from the inner bag, the strips having a width of between 1 and 10 mm and a length of up to 1000 mm, and, on the other hand, fragments of the outer polypropylene envelope in the form of partially unwoven pieces and filaments having a width of 1 to 2 mm and a length of up to 500 mm; - said polyethylene strips are separated from the polypropylene fragments by shaking and a first fraction of polypropylene fragments and a second fraction of polyethylene strips are obtained, the latter being treated by performing a second polypropylene strip shredding process; - said two fractions are cleaned by performing, on each of the fractions: ∘ at least one aeraulic separation; ∘ dedusting; ∘ washing with water; ∘ at least one aeraulic separation; ∘ dedusting; ∘ washing with water; - a first extruder is supplied with said first cleaned fraction of polypropylene fragments in order to obtain polypropylene granules and a second extruder is supplied with said second cleaned fraction of shredded polyethylene strips in order to obtain polyethylene granules.
A roll-over floating mixed multi-habitat submersible based on built-in driving principle comprises an outer spherical shell , a propulsion unit , an inner spherical shell , a rolling power unit, a buoyancy adjusting unit and a driving steering unit; the said outer spherical shell has a spherical outer wall and the said inner spherical shell has a spherical inner wall; the said inner spherical shell is set in the said outer spherical shell , capable of rotating around a first axis direction relative to the said outer spherical shell ; the said rolling power unit is set in the said inner spherical shell , capable of rotating around a second axis to generate an eccentric moment to advance or retract the submersible; the said buoyancy adjusting unit and the said steering unit are installed in the space between the said outer spherical shell and the inner spherical shell , wherein the said buoyancy adjusting unit is capable of causing the submersible to sink or float in the water body, and the said steering unit is capable of driving the inner spherical shell to rotate relative to the outer spherical shell ; the said first axis is perpendicular to the said second axis.
A mouse embryonic stem (ES) cell, comprising: a nucleic acid sequence incorporated into the genome of the mouse ES cell, which sequence encodes a biologically active human Macrophage Colony-Stimulating Factor (hM-CSF) protein and is operably linked to the endogenous promoter of the mouse M-CSF gene at the mouse M-CSF locus.
A device comprising: - an electronic module comprising a control unit communicatively connected via a communication bus with a communication interface ; - a connectivity module configured to provide Internet connectivity for the device via a wireless data interface communicatively connected with the electronic module ; - a data proxy module connected between the data interface of the connectivity module and the communication bus for transmitting data between the data interface and the communication bus ; wherein the data proxy module comprises: - a first sniffing module configured to read data transmitted via the communication bus from the control unit to the communication interface ; - a second sniffing module configured to read data transmitted via the communication bus from the communication interface to the control unit ; - a multiplexer configured to multiplex transparently, all the binary messages data read by the first sniffing module and the second sniffing module and to transmit the multiplexed data to the wireless data interface configured to communicate said transmission to a back-end server for parsing of said binary messages; - a first injecting module configured to transmit data via the communication bus to the control unit ; - a second injecting module configured to transmit data via the communication bus to the communication interface ; and - a demultiplexer configured to read transparently, all the binary messages data from the wireless data interface and to demultiplex and transmit that data to the first injecting module and to the second injecting module . - an electronic module comprising a control unit communicatively connected via a communication bus with a communication interface ; - a connectivity module configured to provide Internet connectivity for the device via a wireless data interface communicatively connected with the electronic module ; - a data proxy module connected between the data interface of the connectivity module and the communication bus for transmitting data between the data interface and the communication bus ; - a first sniffing module configured to read data transmitted via the communication bus from the control unit to the communication interface ; - a second sniffing module configured to read data transmitted via the communication bus from the communication interface to the control unit ; - a multiplexer configured to multiplex transparently, all the binary messages data read by the first sniffing module and the second sniffing module and to transmit the multiplexed data to the wireless data interface configured to communicate said transmission to a back-end server for parsing of said binary messages; - a first injecting module configured to transmit data via the communication bus to the control unit ; - a second injecting module configured to transmit data via the communication bus to the communication interface ; and - a demultiplexer configured to read transparently, all the binary messages data from the wireless data interface and to demultiplex and transmit that data to the first injecting module and to the second injecting module .
Slow heat release stove, comprising a base , a furnace provided with a brazier foreseen inside it, and at least one conveying duct for conveying the combustion fumes produced inside said furnace and associated with respective suction means , said at least one conveying duct being at least partially surrounded, along at least one portion of its length, by heat storage material suitable for storing the heat conveyed by the combustion fumes and for progressively releasing it into the surrounding environment to be heated, wherein said heat storage material is cement or material of any other kind having similar heat properties, said stove comprising at least one tank for storing the solid fuel, of the pellet type, associated with said base and provided with automatic feeding means for automatically feeding the fuel and communicating with an opening foreseen in said furnace , wherein said heat storage material is made up of at least one plurality of blocks stacked in contact on top of one another, characterized in that said at least one conveying duct for conveying the combustion fumes comprises at least one tubular portion made of metal material placed in contact with said heat storage material .
A patient support comprising: an inflatable bladder ; a depth sensor adapted to generate a depth signal indicative of how deeply a patient positioned on said patient support sinks into said inflatable bladder; an air pressure sensor adapted to generate an air pressure signal indicative of a level of air pressure inside of said inflatable bladder; and characterised in that it further comprises a controller adapted to determine a suitable inflation level of said bladder by monitoring a rate of change of the depth signal with respect to the air pressure signal as the air pressure inside the bladder is changed. an inflatable bladder ; a depth sensor adapted to generate a depth signal indicative of how deeply a patient positioned on said patient support sinks into said inflatable bladder; an air pressure sensor adapted to generate an air pressure signal indicative of a level of air pressure inside of said inflatable bladder; and characterised in that it further comprises a controller adapted to determine a suitable inflation level of said bladder by monitoring a rate of change of the depth signal with respect to the air pressure signal as the air pressure inside the bladder is changed.
A planar magnetic loudspeaker system having a planar driver, a case surrounding the driver and having two case openings aligned with a long axis of the driver, and an apparatus for altering a sound wavefront shape from the planar driver, said apparatus comprising: a mounting surface attached to a front surface of the case and having two openings matching said case openings to allow sound from the driver to project therethrough; and a waveguide portion coupled to the mounting surface and having a structure configured to channel sound projected from the driver through the two openings to be combined in one output area, wherein the structure comprises a manifold frame with two side walls and a central pillar running between the side walls to form said two openings and said one output area, wherein the structure has a plurality of reflective surfaces configured to create output sound that has a consistent dispersion pattern over a defined area, said reflective surfaces being formed from contours formed into said side walls and corresponding projections formed into said central pillar to form sound transmission paths for any sound channeled through the two openings, wherein the one output area comprises an outwardly flared sound output area, characterised in that the side walls are curved inward to form a narrower sound transmission area around a centre of the loudspeaker and a wider sound transmission area around opposite ends of the loudspeaker. a mounting surface attached to a front surface of the case and having two openings matching said case openings to allow sound from the driver to project therethrough; and a waveguide portion coupled to the mounting surface and having a structure configured to channel sound projected from the driver through the two openings to be combined in one output area, wherein the structure comprises a manifold frame with two side walls and a central pillar running between the side walls to form said two openings and said one output area, wherein the structure has a plurality of reflective surfaces configured to create output sound that has a consistent dispersion pattern over a defined area, said reflective surfaces being formed from contours formed into said side walls and corresponding projections formed into said central pillar to form sound transmission paths for any sound channeled through the two openings, wherein the one output area comprises an outwardly flared sound output area, characterised in that the side walls are curved inward to form a narrower sound transmission area around a centre of the loudspeaker and a wider sound transmission area around opposite ends of the loudspeaker.
Portable, hand-held cutting-off machine , having: ▪ a supporting housing part , ▪ a cutting-off disc with a disc diameter (D), ▪ an output shaft , which is mounted on the housing part by means of a bearing element such that it can rotate about an output axis , ▪ a drive motor and a transmission device , which connects the drive motor to the output shaft , the transmission device being arranged on the housing part , ▪ a flange with a flange diameter (d f ), wherein the cutting-off disc can be arranged co-rotationally on the output shaft by means of the flange , and ▪ a protective hood having a covering area which at least partly covers the cutting-off disc , and a machining area which exposes the cutting-off disc , the protective hood being mounted on the housing part such that it can pivot about a pivot axis , characterized in that the pivot axis of the protective hood is displaced from the output axis of the output shaft by a distance (Δ), and the pivot axis is displaced with respect to the output axis into the covering area of the protective hood . ▪ a supporting housing part , ▪ a cutting-off disc with a disc diameter (D), ▪ an output shaft , which is mounted on the housing part by means of a bearing element such that it can rotate about an output axis , ▪ a drive motor and a transmission device , which connects the drive motor to the output shaft , the transmission device being arranged on the housing part , ▪ a flange with a flange diameter (d f ), wherein the cutting-off disc can be arranged co-rotationally on the output shaft by means of the flange , and ▪ a protective hood having a covering area which at least partly covers the cutting-off disc , and a machining area which exposes the cutting-off disc , the protective hood being mounted on the housing part such that it can pivot about a pivot axis ,
An assembly for a turbomachine turbine, comprising a housing extending circumferentially about an axis X, sectors intended to form a ring capable of delimiting a gas flow path, each sector comprising a first side and a second side extending radially and circumferentially about the said axis X and spaced axially from each other, each side of the sector comprising at least one radial bearing surface capable of cooperating with radial bearing means of the housing , at least one of the sides comprising means for the circumferential positioning of the sector with respect to the housing characterised in that each radial bearing surface is cylindrical of axis X and is capable of bearing on a complementary cylindrical surface of axis X , integral with the housing , and in that the first side comprises first and second oblong holes extending circumferentially and spaced circumferentially from each other, the second side comprising a third oblong hole extending circumferentially and a fourth oblong hole extending radially, the third and fourth oblong holes being spaced circumferentially from each other, first, second, third and fourth support pins integral with the housing being engaged respectively in the first, second, third and fourth oblong holes of the sector , the first, second and third pins being capable of coming to bear radially on the edges of the first, second and third holes , at the level of cylindrical surfaces of axis X.
A nonlinear optically active copolymer comprising at least a repeating unit A having an adamantyl group and represented by formula , a repeating unit B having a nonlinear optically active moiety and represented by formula in one molecule, and a methyl methacrylate repeating unit: wherein R 1 and R 2 are each independently a hydrogen atom or methyl group, W is -O- or -NH-, L 1 is a single bond, a divalent C 1-30 hydrocarbon group optionally containing an ether bond and/or an ester bond, or *-L 2 -NHC(=O)O-, wherein * is an end bonded to W, L 2 and L 3 are each independently a divalent C 1-30 hydrocarbon group optionally containing an ether bond and/or an ester bond, Ad is an adamantyl group optionally substituted with a C 1-5 alkyl group, and Z is an atomic group exhibiting nonlinear optical activity.
Use of a rectangular rolled copper foil as a flexible flat cable for a steering roll connector , wherein the width of a conductor in the flexible flat cable is 0.3 to 1.1 mm, the rectangular rolled copper foil being made of a hard copper alloy having a 0.2% yield strength of greater than or equal to 250 MPa and comprising a total of less than or equal to 1.0% by mass of one or two or more elements selected from among 0.01 to 0.2% by mass of Mg, 0.01 to 0.5% by mass of Zn, 0.01 to 1.5% by mass of Sn, 0.01 to 0.1% by mass of Ag, 0.001 to 0.05% by mass of P, 0.1 to 0.5% by mass of Cr, 0.01 to 0.1% by mass of Si, 0.01 to 0.2% by mass of Zr, 0.01 to 0.2% by mass of Ti, and 0.01 to 0.2% by mass of Fe, and the balance being copper and inevitable impurities, wherein, in a cross section perpendicular to a rolling direction, an area ratio of crystal grains oriented at a deviation angle of less than or equal to 12.5° from a Cube orientation is greater than or equal to 8%, wherein the foil material is recrystallized, wherein a lattice defect is present in the structure of the matrix of the rectangular rolled copper foil , wherein the average crystal particle diameter of the rectangular rolled copper foil is 1 μm to 10 μm, and wherein the rectangular rolled copper foil has a flex life cycle of 500.000 times or more at a bend radius of less than or equal to 6 mm. wherein, in a cross section perpendicular to a rolling direction, an area ratio of crystal grains oriented at a deviation angle of less than or equal to 12.5° from a Cube orientation is greater than or equal to 8%, wherein the foil material is recrystallized, wherein a lattice defect is present in the structure of the matrix of the rectangular rolled copper foil , wherein the average crystal particle diameter of the rectangular rolled copper foil is 1 μm to 10 μm, and wherein the rectangular rolled copper foil has a flex life cycle of 500.000 times or more at a bend radius of less than or equal to 6 mm.
A system for enabling cloud access to a legacy application, said system comprising a local system and a cloud system, wherein the local system comprises: a locally installed legacy application ; a first storage comprising a first data store associated with the application; an adapter configured to retrieve data from the first data store, the adapter further configured to receive a command from the cloud system and then execute the command against the application; and a synchronisation engine configured to synchronise the retrieved data with the cloud system; and the cloud system comprises: a second storage comprising a second data store associated with the legacy application; and an application programming interface, API , configured to receive the retrieved data from the local system and update the second data store based on the received data. the local system comprises: a locally installed legacy application ; a first storage comprising a first data store associated with the application; an adapter configured to retrieve data from the first data store, the adapter further configured to receive a command from the cloud system and then execute the command against the application; and a synchronisation engine configured to synchronise the retrieved data with the cloud system; and a locally installed legacy application ; a first storage comprising a first data store associated with the application; an adapter configured to retrieve data from the first data store, the adapter further configured to receive a command from the cloud system and then execute the command against the application; and a synchronisation engine configured to synchronise the retrieved data with the cloud system; and the cloud system comprises: a second storage comprising a second data store associated with the legacy application; and an application programming interface, API , configured to receive the retrieved data from the local system and update the second data store based on the received data. a second storage comprising a second data store associated with the legacy application; and an application programming interface, API , configured to receive the retrieved data from the local system and update the second data store based on the received data.
A single-chamber furnace for fuming at least one evaporable metal or metal compound from a metallurgical charge comprising a bath furnace susceptible to contain a molten charge up to a determined level, whereby the furnace is equipped with at least one nontransferred plasma torch for the generation of plasma-quality first hot gases and with at least one first submerged injector for injecting the first hot gases from the plasma torch below the determined level, whereby the furnace is further comprising an afterburning zone for oxidising the at least one evaporable metal or metal compound in the fuming gas, downstream of the furnace top, to form an oxidised form of the at least one evaporable metal or metal compound, a cooling zone for cooling the gas that is formed in the afterburning zone, and a recovery zone, downstream of the cooling zone, for recovering the oxidized form of the at least one evaporable metal or metal compound from the gas formed in the afterburning zone and cooled in the cooling zone, characterized in that the furnace is further equipped with at least one second submerged injector different from the first submerged injector for injecting extra gas into the furnace below the determined level.
An apparatus comprising an electric component (130; 132) capable of generating heat, a heat dissipater component (130; 132) and a thermally conductive heat transfer interface structure (110; 200; 410), the thermally conductive heat transfer interface structure (110; 200; 410) comprising a substrate having a first surface (125; 127) and a second surface (125; 127) and a plurality of raised features (120; 220) formed on at least one of the first surface and the second surface of the substrate, the raised features being deformable under a compressive force, wherein some of the raised features have an opening at a respective end portion thereof, characterized in that the heat transfer interface structure is located between the electric component and the dissipater component (130; 132) and the raised features are deformed by bending or buckling.
A pool cleaning robot comprising a spectroscopic device ; wherein the spectroscopic device is configured to analyze a fluid of a pool; wherein the pool cleaning robot is characterized by comprising a controller that is configured to (a) schedule multiple analyses of the fluid of the pool at different locations within the pool; (b) control a movement of the pool cleaning robot based on the multiple scheduled analyses and (c) control an execution of the multiple scheduled analysis, wherein at least two locations of the different locations are positioned at different distances from a bottom of the pool.