US2013228044A1PendingUtilityA1
Composite products and manufacturing method
Est. expiryAug 9, 2030(~4 yrs left)· nominal 20-yr term from priority
C22B 1/244C10L 5/14C10L 5/361C10L 5/363Y02E50/30C10L 5/36C10L 5/406C10L 2200/0469C10L 2290/06C10L 2290/24C10L 2290/32
26
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Claims
Abstract
A composite product and a method of manufacturing the composite product are disclosed. The composite product includes (a) a polymeric material binder and a metal-bearing material or (b) the polymeric material binder and a carbon-bearing material. The 5 method includes heating and mixing the components of the composite product and thereafter forming the heated mixture into a final product shape, with the heating step being sufficient to melt at least a part of the polymeric material binder to facilitate forming the product.
Claims
exact text as granted — not AI-modified1 . A method of manufacturing a composite product in the form of (a) a polymeric material binder and a metal-bearing material or (b) the polymeric material binder and a carbon-bearing material that comprises heating and mixing the components of the composite product and thereafter forming the heated mixture into a final product shape, with the heating step being sufficient to melt at least a part of the polymeric material binder to facilitate forming the product.
2 . The method of manufacturing the composite product that comprises the polymeric material binder and the metal-containing material defined in claim 1 includes mixing sources of carbon other than the polymeric material binder, with the metal-bearing material and the polymeric material.
3 - 5 . (canceled)
6 . The method defined in claim 1 comprises mixing the metal-bearing material and the polymeric material binder so that there is a uniform dispersion of the metal-bearing material through the product.
7 . The method defined in claim 1 comprises mixing the carbon-bearing material and the polymeric material binder so that there is a uniform dispersion of the carbon-bearing material through the product.
8 . The method defined in claim 1 comprises heating the mixture of the components of the product at a temperature that is sufficiently high to completely melt the polymeric material binder.
9 - 12 . (canceled)
13 . The method defined in claim 1 includes forming the heated mixture into the composite product by extruding the heated mixture.
14 . A composite product comprises a metal-bearing material and a polymeric material that acts as a binder for the metal-bearing material.
15 . The product defined in claim 14 comprises other materials, such as materials that are sources of carbon other than the polymeric material binder.
16 . A composite product comprises a carbon-bearing material and a polymeric material that acts as a binder for the carbon-bearing material.
17 . The product defined in claim 16 comprises a metal-bearing material.
18 . The product defined in claim 14 comprises a continuous network of the polymeric material and a uniform dispersion of the metal-bearing material.
19 . (canceled)
20 . The product defined in claim 14 comprises an outer covering of the polymeric material
21 - 22 . (canceled)
23 . The product defined in claim 14 wherein the polymeric material is a recycled polyethylene such as a low density polyethylene or a high density polyethylene or a recycled polypropylene.
24 - 25 . (canceled)
26 . The product defined in claim 14 being made completely from recycled materials, with each of the polymeric binder material and the metal-bearing material being recycled materials.
27 - 29 . (canceled)
30 . A method for producing a molten metal that comprises supplying the composite product defined in claim 14 as a feed material for the method, with the composite product being formed by the method defined in claim 1 with sufficient strength and toughness to be able to be handled within a high temperature processing plant for carrying out the method of producing the molten metal and to be charged into a high temperature furnace in the plant without significant breakdown of the product into smaller sized products, with generation of fines outside and/or inside the furnace.
31 . A method for producing a molten metal that comprises supplying the composite product defined in claim 14 as a feed material for the method, with the composite product being formed by the method defined in claim 1 to be sufficiently large and have required mechanical properties such as strength to withstand high temperature and reactive conditions in a high temperature furnace in a high temperature processing plant for carrying out the method to facilitate controlled dissolution of the product in the furnace over a required time period.
32 . The product defined in claim 16 comprises a continuous network of the polymeric material and a uniform dispersion of the carbon-bearing material.
33 . The product defined in claim 16 comprises an outer covering of the polymeric material.
34 . The product defined in claim 16 wherein the polymeric material is a recycled polyethylene such as a low density polyethylene or a high density polyethylene or a recycled polypropylene.
35 . The product defined in claim 16 being made completely from recycled materials, with each of the polymeric binder material and the carbon-bearing material being recycled materials.
36 . A method for producing a molten metal that comprises supplying the composite product defined in claim 16 as a feed material for the method, with the composite product being formed by the method defined in claim 1 with sufficient strength and toughness to be able to be handled within a high temperature processing plant for carrying out the method of producing the molten metal and to be charged into a high temperature furnace in the plant without significant breakdown of the product into smaller sized products, with generation of fines outside and/or inside the furnace.
37 . A method for producing a molten metal that comprises supplying the composite product defined in claim 16 as a feed material for the method, with the composite product being formed by the method defined in claim 1 to be sufficiently large and have required mechanical properties such as strength to withstand high temperature and reactive conditions in a high temperature furnace in a high temperature processing plant for carrying out the method to facilitate controlled dissolution of the product in the furnace over a required time period.Join the waitlist — get patent alerts
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