Click on the links below to expose the answers.
The Polymer Blocks remove soil particles such as clay, sand and silt, as well as the contaminants that may be attached to the particles such as nitrogen and phosphorus nutrients, metals and hydrocarbons.
Yes, results have shown reductions in dissolved metals in many applications through the removal of colloidal TDS (Total Dissolved Solids); however, these results vary depending on water chemistry and the metals present.
Contact one of our Sales Team, or review our job histories for job specific data and reduction values.
Specifically: Cloverbar Ravine, Aggragate Wash Plant and/or the Golf Course files.
No, Lynx products are non-toxic and environmentally safe, according to studies completed by two major universities.
The molecules are too large to bioaccumulate and, unlike cationic polymers, will not suffocate fish or other aquatic organisms.
Environment Canada-certified toxicity tests on fish (fathead minnow, rainbow trout), water fleas and algae have been conducted on the Lynx product(s) offered by Clearflow.
No, the Water Lynx blocks are designed to release directly into turbulent flow. If water is stagnant, the Water Lynx blocks will swell but not release.
When the water flow increases (for example, due to spring runoff or manual pumping) the hydrated block will slowly dissolve and self-dose to a safe, effective level in the water.
Water Lynx & Soil Lynx, when applied, bind to the soil and/or natural material, such as jute.
Validation of our toxicity statements and environmental impact studies have been conducted by University of Alberta and the University of Guelph and third-party labratories.
The polymer will hold the sediments and contaminants until the polyacrylamide degrades. The anionic polyacrylamide degrades at a slow pace, releasing the sediments and contaminants at much lower, safer levels for the environment.
Alternatively, the flocculated material can be manually removed, either by removing the jute fabric or other material it was bound to, or by manual removal of the flocculated sediment itself. The client may wish to remove the flocculated sediment if it is known to contain high levels of contaminant, or for maintenance needs.
Please see our MSDS page.
You may order the product either by contacting us directly at 780-410-1403
or click on the following link: http://clearflowgroup.com/contact-us/.
Small amounts of hydrocarbons attached to the soil particles can be removed from the water.
We can also treat higher amounts of hydrocarbons using different pre-treatment techniques, such as our PT-5 Systems.
For more information on product costs, please contact us at:
We have found that typical products used for erosion control and flocculation are not consistent in the Canadian marketplace. The efficacy of the products can be affected by such site-specific properties as soil lithology and water chemistry. If the product is not having the desired effect, other companies commonly resort to adding more of the same product.
Our products are designed to be site-specific and environmentally friendly. Our company will match your soil or water sample to the most effective polymer Lynx product(s), ensuring that the product used is the best match for your site soil and water chemistry. This will not only bring peace of mind that the product will indeed work effectively on your site, but also reduces the total amount of product needed to be purchased by the client.
Bullock G, Blazer V, Tsukuda S & Summerfelt S (2000). Toxicity of acidified chitosan for cultured rainbow trout (Oncorhynchus mykiss). Aquaculture 185, 273-280.
Exley C, Chappell JS & Birchall JD (1991). A mechanism for acute aluminum toxicology in fish. Journal of Theoretical Biology 151 (3), 417-428.
Orts WJ, Sojka RE & Glen GM (2000). Biopolymer additives to reduce erosion-induced soil losses during irrigation. Industrial Crops and Products 11,19-29.
Verbost PM, Lafeber FP, Spannings FA, Aarden EM & Wendelaar Bonga SE (1992). Inhibition of Ca2+ uptake in freshwater carp, Cyprinus carpio, during short-term exposure to aluminum. Journal of Experimental Zoology 262 (3), 247-254.