mhurhangee/patent-ind-claim-en huggingface dataset:
Device for treating carbonaceous-material waste by steam thermolysis, comprising: - a steam-thermolysis reactor intended to receive the ground waste, to be supplied by a fuel coming from a vessel and to receive fumes containing steam, in order to raise the ground waste to a temperature of between 200° and 700 °C during a steam-thermolysis reaction forming steam/gas products, said reactor being provided with: * means for introducing the ground waste into said reactor, * a combustion chamber provided with a burner (12, 12-b) * a casing receiving the combustion products in order to heat said reactor, * an outlet of said reactor intended to discharge said steam/gas products, - a condenser for condensing said steam/gas products discharged in order to obtain a condensate, - a separator connected to said condenser in order to separate said condensate into loaded water containing residual hydrocarbons and into oil, - a storage vessel intended to receive said loaded water, characterised in that the device further comprises a conveying means suitable for conducting said loaded water from said storage vessel to said combustion chamber, so that said loaded water treated by said combustion chamber is a heat-energy source of said steam-thermolysis reactor , said heat-energy source further comprising said combustion products coming from the combustion of said fuel and/or from the combustion of noncondensed gases obtained at the end of the condensation of said steam/gas products. - a steam-thermolysis reactor intended to receive the ground waste, to be supplied by a fuel coming from a vessel and to receive fumes containing steam, in order to raise the ground waste to a temperature of between 200° and 700 °C during a steam-thermolysis reaction forming steam/gas products, said reactor being provided with: * means for introducing the ground waste into said reactor, * a combustion chamber provided with a burner (12, 12-b) * a casing receiving the combustion products in order to heat said reactor, * an outlet of said reactor intended to discharge said steam/gas products, * means for introducing the ground waste into said reactor, * a combustion chamber provided with a burner (12, 12-b) * a casing receiving the combustion products in order to heat said reactor, * an outlet of said reactor intended to discharge said steam/gas products, - a condenser for condensing said steam/gas products discharged in order to obtain a condensate, - a separator connected to said condenser in order to separate said condensate into loaded water containing residual hydrocarbons and into oil, - a storage vessel intended to receive said loaded water,
A method of calibrating a pump in a system, wherein the system comprises a pump , a plurality of application lines downstream of the pump, and a flow control device in each application line, the method comprising: adjusting pump duty cycle until a desired total flow rate in the system is achieved; checking pressure at the flow control devices of the plurality of application lines, and if pressure is below a minimum pressure for the flow control devices, adjusting pump duty cycle until minimum pressure is achieved for each flow control device; and characterized by the method comprising checking for an amount that each flow control device is open, and if any flow control device is open at or beyond a maximum open position, adjusting the pump duty cycle until each flow control device is open to less than the maximum open position to allow for each flow control device to be adjusted in open or close direction to fine tune the flow rate. adjusting pump duty cycle until a desired total flow rate in the system is achieved; checking pressure at the flow control devices of the plurality of application lines, and if pressure is below a minimum pressure for the flow control devices, adjusting pump duty cycle until minimum pressure is achieved for each flow control device; and characterized by the method comprising checking for an amount that each flow control device is open, and if any flow control device is open at or beyond a maximum open position, adjusting the pump duty cycle until each flow control device is open to less than the maximum open position to allow for each flow control device to be adjusted in open or close direction to fine tune the flow rate.
A piezoelectric laminate comprising, on a substrate in the following order: a lower electrode layer ; and a piezoelectric film ; wherein the piezoelectric film contains a perovskite-type oxide, the piezoelectric film includes a first region in which the perovskite-type oxide contains, as a main component, a first perovskite crystal in which a first angle formed by a plane orientation or a plane orientation and a normal direction of a surface of the substrate is 5° or more and 30° or less, and a second region provided between the first region and the lower electrode layer , characterized in that the second region in which the perovskite-type oxide contains, as a main component, a second perovskite crystal , a second angle formed by the plane orientation or the plane orientation and the normal direction is less than 5°, and in that a thickness of the second region is 30 nm or more. a lower electrode layer ; and a piezoelectric film ; wherein the piezoelectric film contains a perovskite-type oxide, the piezoelectric film includes a first region in which the perovskite-type oxide contains, as a main component, a first perovskite crystal in which a first angle formed by a plane orientation or a plane orientation and a normal direction of a surface of the substrate is 5° or more and 30° or less, and a second region provided between the first region and the lower electrode layer , characterized in that the second region in which the perovskite-type oxide contains, as a main component, a second perovskite crystal , a second angle formed by the plane orientation or the plane orientation and the normal direction is less than 5°, and in that a thickness of the second region is 30 nm or more.
An asymmetric support structure of entry driven along gob-side under unstable roof in deep mines, characterized by comprising a roadway roof support structure and an asymmetric support structure at roadway's sides; the roadway roof support structure comprising a reinforcing wire mesh , a W-section steel strap , high-strength pretensioned bolts and support units consisting of two cable bolts and a matching steel strap , wherein the reinforcing wire mesh clings to the roadway roof , the W-section steel strap is arranged outside the reinforcing wire mesh , a plurality of high-strength pretensioned bolts vertically pass through the W-section steel strap and the reinforcing wire mesh , and the anchor ends of high-strength pretensioned bolts are connected into the roadway roof , cable holes are provided at the ends of steel strap , the cable bolts pass through the cable holes and the reinforcing wire mesh , the anchor ends of cable bolts are connected into the relatively stable strata in the main roof and inclined to the seam-side ; the asymmetric support structure at roadway's sides can control releasing rock pressure partly, comprising a gob-side support structure and a solid coal seam-side support structure; the gob-side support structure comprising a reinforcing wire mesh , a W-section steel strap , high-strength pretensioned yielding bolts and support units consisting of two grouting cable bolts and a matching steel strap , wherein the reinforcing wire mesh clings to the gob-side , the W-section steel strap is arranged outside the reinforcing wire mesh , a plurality of high-strength pretensioned yielding bolts horizontally pass through the W-section steel strap and the reinforcing wire mesh , and the anchor ends of high-strength pretensioned yielding bolts are connected into the gob-side , cable holes are provided at the ends of the steel strap , the grouting cable bolts pass through the cable holes and the reinforcing wire mesh , and the anchor ends of grouting cable bolts are connected into the gob-side ; the solid coal seam-side support structure comprising a reinforcing wire mesh , a reinforced beam and steel strap pallet subassembly , high-strength pretensioned yielding bolts and support units consisting of two cable bolts and a matching steel strap , wherein the reinforcing wire mesh clings to the seam-side , the reinforced beam and steel strap pallet subassembly is arranged outside the reinforcing wire mesh , a plurality of high-strength pretensioned yielding bolts horizontally pass through the reinforced beam and steel strap pallet subassembly and the reinforcing wire mesh , and the anchor ends of high-strength pretensioned yielding bolts are connected into the seam-side , cable holes are provided at the ends of the steel strap , the cable bolts pass through the cable holes and the reinforcing wire mesh , and the anchor ends of cable bolts are connected into the seam-side .
Method for producing a water guard for vehicle doors, suitable to produce a water guard comprising a plastic element and a gasket which adheres to a coupling profile arranged at an upper portion of said plastic element ; said method being characterised in that it occurs in a double mould having a first cavity and a second cavity and in that it comprises the steps of: - moulding said plastic element in a first cavity of said double mould; said first cavity having the shape of said plastic element ; during said moulding of said plastic element , the mould is provided with movable devices suitable to define a plurality of holes at the coupling portion between said plastic element and said gasket ; said holes being suitable to be subsequently filled with said silicone rubber or said thermoplastic elastomer in order to form nail heads which establish a mechanical constraint between the plastic element and the gasket ; - transferring said plastic element , by now solidified, to said second cavity of said double mould; said transfer being carried out by a mechanical arm; said second cavity having the shape of said complete water guard ; - injecting a predetermined amount of silicone rubber or of a thermoplastic elastomer, such as TPE, at the empty portion of said second cavity of said double mould, the remaining cavity portion being filled with said plastic element ; - waiting for the time of solidification of said silicone rubber or said thermoplastic elastomer which will form said gasket and removal of the complete water guard . - moulding said plastic element in a first cavity of said double mould; said first cavity having the shape of said plastic element ; during said moulding of said plastic element , the mould is provided with movable devices suitable to define a plurality of holes at the coupling portion between said plastic element and said gasket ; said holes being suitable to be subsequently filled with said silicone rubber or said thermoplastic elastomer in order to form nail heads which establish a mechanical constraint between the plastic element and the gasket ; - transferring said plastic element , by now solidified, to said second cavity of said double mould; said transfer being carried out by a mechanical arm; said second cavity having the shape of said complete water guard ; - injecting a predetermined amount of silicone rubber or of a thermoplastic elastomer, such as TPE, at the empty portion of said second cavity of said double mould, the remaining cavity portion being filled with said plastic element ; - waiting for the time of solidification of said silicone rubber or said thermoplastic elastomer which will form said gasket and removal of the complete water guard .
A method for remolding thermoplastic material, said method comprising the steps of: a) molding thermoplastic carriers in an injection molding apparatus; b) using the molded carriers in a transportation and/or manufacturing process; c) degrading the used carriers in a degrading apparatus to obtain a non-virgin granulate; and d) providing said non-virgin granulate to said injection molding apparatus for recycling; e) wherein said injection moulding apparatus - in said molding step - is configured to mold each thermoplastic carrier with an integrally formed indicator which is indicative of said injection molding apparatus; f) wherein - prior to said degrading step - the thermoplastic carriers are selectively filtered by means of the associated indicators, so that correctly indicated, used carriers are fed into said degrading apparatus; and g) wherein used carriers are selectively filtered by means of said indicator being detected by means of a filtering device. a) molding thermoplastic carriers in an injection molding apparatus; b) using the molded carriers in a transportation and/or manufacturing process; c) degrading the used carriers in a degrading apparatus to obtain a non-virgin granulate; and d) providing said non-virgin granulate to said injection molding apparatus for recycling; e) wherein said injection moulding apparatus - in said molding step - is configured to mold each thermoplastic carrier with an integrally formed indicator which is indicative of said injection molding apparatus; f) wherein - prior to said degrading step - the thermoplastic carriers are selectively filtered by means of the associated indicators, so that correctly indicated, used carriers are fed into said degrading apparatus; and g) wherein used carriers are selectively filtered by means of said indicator being detected by means of a filtering device.
A light conversion film comprising: a first barrier film ; a light conversion layer disposed on the first barrier film , the light conversion layer including a light conversion composite comprising a matrix resin and quantum dot-polymer beads dispersed within the matrix resin ; and a second barrier film disposed on the light conversion layer , wherein each of the quantum dot-polymer beads has the form of a cluster and is formed by aggregating a plurality of quantum dot-polymer units , each of the quantum dot-polymer units includes a quantum dot and a polymer surrounding the quantum dot surface and of which a portion of a chain is bonded to a surface of the quantum dot to form a coating layer, and the quantum dot distance is 14 nm to 112 nm. a first barrier film ; a light conversion layer disposed on the first barrier film , the light conversion layer including a light conversion composite comprising a matrix resin and quantum dot-polymer beads dispersed within the matrix resin ; and a second barrier film disposed on the light conversion layer , wherein each of the quantum dot-polymer beads has the form of a cluster and is formed by aggregating a plurality of quantum dot-polymer units , each of the quantum dot-polymer units includes a quantum dot and a polymer surrounding the quantum dot surface and of which a portion of a chain is bonded to a surface of the quantum dot to form a coating layer, and the quantum dot distance is 14 nm to 112 nm.
A composition comprising therapeutically effective amounts of (i) one or more of uridine and cytidine, or salts, phosphates, acyl derivatives or esters thereof, (ii) at least one of docosahexaenoic acid (22:6; DHA), eicosapentaenoic acid (20:5; EPA) and docosapentaenoic acid (22:5; DPA), or esters thereof, (iii) choline, or salts or esters thereof, for use in therapeutically treating or preventing global developmental delay in a child, wherein said composition comprises: (i) 10 - 200 mg uridine monophosphate (UMP) per 100 kcal or per 100 ml; and (ii) 250 - 9000 mg DHA + EPA per 100 kcal or per 100 ml; and (iii) 60 - 350 mg choline per 100 kcal or per 100 ml; and (iv) 1 - 5 μg vitamin B12 or equivalents per 100 kcal or per 100 ml, and (v) per 100 kcal or per 100 ml, 60 - 150 μg of iodine and 5-25 mg of zinc. (i) 10 - 200 mg uridine monophosphate (UMP) per 100 kcal or per 100 ml; and (ii) 250 - 9000 mg DHA + EPA per 100 kcal or per 100 ml; and (iii) 60 - 350 mg choline per 100 kcal or per 100 ml; and (iv) 1 - 5 μg vitamin B12 or equivalents per 100 kcal or per 100 ml, and (v) per 100 kcal or per 100 ml, 60 - 150 μg of iodine and 5-25 mg of zinc.
A pad supporting frame comprising: a carrier board having a top surface; a bottom surface; multiple bars formed on and protruding out of the top surface of the carrier board at spaced intervals; and multiple connecting holes formed through the top surface of the carrier board and the bottom surface of the carrier board ; characterised by a supporting structure detachably disposed on the carrier board , located on the bottom surface of the carrier board , and having multiple connecting protrusions respectively inserted into the connecting holes ; multiple retaining holes formed on top surfaces of the connecting protrusions respectively; and multiple retaining protrusions formed on bottom surfaces of the connecting protrusions respectively, wherein an outer diameter of each one of the retaining holes is smaller than an outer diameter of a corresponding one of the connecting protrusions . a carrier board having a top surface; a bottom surface; multiple bars formed on and protruding out of the top surface of the carrier board at spaced intervals; and multiple connecting holes formed through the top surface of the carrier board and the bottom surface of the carrier board ; characterised by a top surface; a bottom surface; multiple bars formed on and protruding out of the top surface of the carrier board at spaced intervals; and multiple connecting holes formed through the top surface of the carrier board and the bottom surface of the carrier board ; characterised by a supporting structure detachably disposed on the carrier board , located on the bottom surface of the carrier board , and having multiple connecting protrusions respectively inserted into the connecting holes ; multiple retaining holes formed on top surfaces of the connecting protrusions respectively; and multiple retaining protrusions formed on bottom surfaces of the connecting protrusions respectively, wherein an outer diameter of each one of the retaining holes is smaller than an outer diameter of a corresponding one of the connecting protrusions . multiple connecting protrusions respectively inserted into the connecting holes ; multiple retaining holes formed on top surfaces of the connecting protrusions respectively; and multiple retaining protrusions formed on bottom surfaces of the connecting protrusions respectively, wherein an outer diameter of each one of the retaining holes is smaller than an outer diameter of a corresponding one of the connecting protrusions .
A measurement device comprising: an integrated direct current source configured to power a device under test ; a monitoring unit configured to monitor at least one monitoring parameter of the direct current source ; characterized in that the measurement device is an oscilloscope, wherein the measurement device has a housing which encompasses a measurement unit being allocated to inputs , the monitoring unit , a control unit , and the integrated direct current source , wherein the measurement unit is configured to perform measurements on an electric signal of the device under test while applying at least one measurement parameter for performing the measurements, wherein the electric signal is fed to the measurement device via the inputs , wherein the at least one measurement parameter applied corresponds to a setting of the measurement device while performing the measurements on the device under test ; and wherein the control unit is configured to control the at least one measurement parameter in response to the at least one monitoring parameter. an integrated direct current source configured to power a device under test ; a monitoring unit configured to monitor at least one monitoring parameter of the direct current source ; characterized in that the measurement device is an oscilloscope, wherein the measurement device has a housing which encompasses a measurement unit being allocated to inputs , the monitoring unit , a control unit , and the integrated direct current source , wherein the measurement unit is configured to perform measurements on an electric signal of the device under test while applying at least one measurement parameter for performing the measurements, wherein the electric signal is fed to the measurement device via the inputs , wherein the at least one measurement parameter applied corresponds to a setting of the measurement device while performing the measurements on the device under test ; and wherein the control unit is configured to control the at least one measurement parameter in response to the at least one monitoring parameter.
A hot melt adhesive composition comprising a thermoplastic polyurethane copolymer, wherein the thermoplastic polyurethane copolymer comprises a reaction product of at least one polyester polyol obtained by the condensation of one or more polyhydric alcohol with 2 to 30 carbon atoms with one or more polycarboxylic acid having 2 to 30 carbon atoms; and optionally a chain extender; and at least one polyisocyanate which is selected from 4,4'-diphenylmethanediisocyanate, 2,2'-diphenylmethane diisocyanate, diphenyl methane 2,4'-diisocyanate, 1,3-phenylenediisocyanate, 1,4-phenylenediisocyanate, naphthalene-1,5-diisocyanate, toluene diisocyanate, tetramethyl xylylene diisocyanate, di- and tetraalkyl diphenylmethane diisocyanate, 4,4'-dibenzyl diisocyanate, dodecane diisocyanate, dimer fatty acid diisocyanate, 1,6-diisocyanato-2,2,4-trimethylhexane, butane-1,4-diisocyanate, hexane-1,6-diisocyanate, tetramethoxybutane-1,4-diisocyanate, dicyclohexylmethanediisocyanate, 1,12-diisocyanato-dodecane, 4,4-dicyclohexylmethanediisocyanate, 1,3-cyclohexane or 1,4-cyclohexene diisocyanate, 1-methyl-2,4-diisocyanato-cyclohexane, 1-isocyanatomethyl-3-isocyanato-1,5,5-trimethylcyclohexane, hydrogenated or partly hydrogenated MDI, xylylenediisocyanate, tetramethyl-xylylenediisocyanate, di- and tetraalkylenediphenylmethane-diisocyanate, and combinations thereof; wherein the molar ratio of the NCO groups of the polyisocyanate to the OH groups of the polyester polyol is less than 0.95:1; wherein the viscosity of the thermoplastic polyurethane copolymer is 1,000 to 100,000 mPas at 160°C; wherein the thermoplastic polyurethane copolymer is thermally stable; and wherein the thermal stability is defined as a viscosity change of less than ± 10 % compared to the initial viscosity of the thermoplastic polyurethane copolymer after 6 hours at 160 °C, wherein the at least one polyester polyol comprises a) at least one semi-crystalline polyester polyol having a melting point (T m ) of from 40 to 150 °C; and b) at least one non-crystalline polyester polyol, and whereby the melting point (T m ) and the viscosity are measured as described in the example section of the description. a) at least one semi-crystalline polyester polyol having a melting point (T m ) of from 40 to 150 °C; and b) at least one non-crystalline polyester polyol, and