Batch / Mixing Tanks and Stands

The addition of General Treatment Products Open Top Processing Tanks and stands are a safe and reliable way to insure proper storage and distribution of process chemicals. With the addition of mounting brackets for pumps, controllers, mixers, level sensors and other custom accessory items, "GTP" Tanks Stands can help extend the life of all products involved.

 

  • Standard Features:

    3 to 500 Gallon Open Top Tanks

    Flat Bottom, Cone Bottom, Tapered & Rectangular

    "HD" Polyethylene, Polypropylene, KYNAR & Crosslink Polyethylene

    Standard and Custom Colors

    Two Year Warranty

     

  • Optional Features

    Spun-Weld and Bulkhead Tank Fittings

    Drain Valves, Flooded Suction Kits and Y-Strainers

    Sight Level Gauges

    Mixer Brackets and Control Panel Brackets

    Tie down Straps and Cable Straps

    "OEM" Versions Available

     

    Note: All options are not available on all models. Please consult factory for availability

  • Literature

  • Definitions of Polyethylene

    What are the differences between HDPE, LDPE, XLPE, LLDPE, and UHMWPE?

     

    Polyethylene is a polyolefin. Polyolefins are high molecular weight hydrocarbons. Polyolefins include linear low density polyethylene, low density polyethylene, high density polyethylene, polypropylene copolymer, polypropylene, and polymethyl pentene. These are the only plastics that have a lower specific gravity than water. These materials can become brittle from oxidation and are damaged by exposure to UV light. When ethylene is polymerized the result is relatively straight polymer chains. From the main chain they can branch out. We get different kinds of Polyethylenes from the varying degree of branching in their molecular structure. Below are brief descriptions on how the polyethylenes differ from each other.

     

    LDPE (Low Density Polyethylene) has the most excessive branching. This causes the low density to have a less compact molecular structure which is what makes it less dense. It has a density of 0.910-0.925g/cm3.

    HDPE (High Density Polyethylene) has minimal branching of its’ polymer chains. Because it is denser it is more rigid and less permeable then the LDPE. It has a density of 0.941-0.965g/cm3.

    LLDPE (Linear Low Density Polyethylene) has a significant number of short branches. Because it has shorter and more branches its chains are able slide against each other upon elongation without becoming entangled like LPDE which has long branching chains that would get caught on each other. This gives LLDPE higher tensile strength and higher impact and puncture resistance than the LDPE. It has a density of 0.91-0.94g/cm3.

    MDPE (Medium Density Polyethylene) has a little less branching then the HDPE. It is less notch sensitive then HDPE and has better stress cracking resistance. It has a density range of 0.926 - 0.940 g/cm3

    UHMWPE (Ultra High Molecular Weight Polyethylene) has extremely long chains, with molecular weight numbering in the millions (usually between 2 to 6 million). In general, HDPE molecules have between 700 and 1,800 monomer units per molecule, whereas UHMWPE molecules tend to have 100,000 to 250,000 monomers each. The chains of UHMW align in the same direction. The bonds between the chains are not very strong however, because they are so long there are more bonds holding it together then polyethylene with shorter chains. These long chains give UHMW high tensile strength. The longer chains serve to transfer load more effectively to the polymer backbone by strengthening intermolecular interactions. This causes the material to be very tough and gives it the highest impact strength of the polyethylenes. It has a density of 0.928-0.941 g/cm3.

    XLPE (Crosslinked Polyethylene) is high density polyethylene which has covalent bonds between connecting its polymer chains. These bonds are caused by using heat plus chemicals or radiation and they help to form 3-dimensional polymers with high molecular weights. These bonds tie the polymers together and lengthening the polymer chains giving it better physical properties. The molecular structure that is formed by crosslinking provides superior stress cracking, improved toughness, stiffness, and chemical resistance compared to the HDPE.

     

  • Installation Diagrams

    Coming Soon

     

     

     

     

     

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