Commercial Vermicomposting Systems Overview

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Commercial Vermicomposting Systems Overview AVAILABLE SERVICES: Feasibility Studies Laboratory trials and Analysis... Pilot Projects and Studies... Project Management and Support Contacts. Techniques and Equipment Digester Shelters and Controlled Environments Continuous flow Digesters and Automated Vermiculture Systems for: o Biodegradable Municipal Solid Waste o Pre-Treatment Systems o Industrial Sludge (paper industry) o Green Waste o Agricultural Waste from crop & Meat production o Waste Water Treatment (bio-solids) o Food Service Waste o Brewery Waste

0 Maintenance Policy Our engineers prescribe to the K I S. (keep it simple) method and have eliminated all but the necessary moving parts. There is no under system maintenance. All parts and labor have a ten year guarantee. Motors, pumps and hydraulic equipment have manufactures warranties and service agreements. Your choice of eclectic or hydraulic power units, automated covers, thermal couplers for temperature control, misting systems for moisture and temperature control, computer programming for monitoring multiple systems and larger commercial facilities.. All systems are modular for easy expansion to meet increased production requirements. Technical Subscription Services For anyone considering or attempting to set up a Wormery in a back yard all the way to commercial Digester for Industrial and Municipal service. Our in-house staff is available for information on Vermiculture, Agricultural Techniques related to Horticultural and greenhouse applications. You are fully supported to help with start up and any operation issues. Minimal daily maintenance required (1 hour per day max.) To determine the correct size of machine an accurate survey of daily waste to be processed will be required. The machine will need to be indoors in a heated environment for winter use. Minimum temperature should be no less than 50 F. No direct sun. Optimal temperatures 70-80 F. (insulated versions are available for stand alone out door) Concrete or asphalt floor is required Pier blocks at a minimum Continuous Flow Digester Concept

Benefits and Features: Flow through design- Organic waste in on the top and finished Vermicompost out the bottom provide 95% worm free. 90% of the worm population will be found in the top 4 inches of the worm bed. Harvesting begins 6-8 weeks after setup. Year around use, 365 days a year. Highly aerobic conditions are easily maintained No loss of nutrients due to seepage into the ground. No need to turn materials After initial inoculation no further worm population will be needed. The population will propagate and maintain ample populations to process the organic feedstock. 2010 Pricing for Medium Sized Flow Thru Systems Size Square Processing Pricing Footage Capacity * 5'x8' 40 100lb/day 4,635.00 5'x16' 80 200lb/day 7,928.00 5'x24' 120 300lb/day 11,724.00 5'x32' 160 400lb/day 14,521.00 5'x40' 200 500lb/day 17,818.00 5'x48' 240 600lb/day 21,115.00 Delivery is 30-45 days from the order date Power requirements: 110-volt single phase with a GFI circuit. The clean out mechanism uses 2 each 110V. Electric winches. Worm population: 100lb per 8 ft increment. Startup should be no less than 50 lb. per 8 ft increment. All components are powder coated for a long lasting finish. Optional lids and ventilation systems and under floor recovery systems are available

History of Vermicomposting Vermicomposting, as an industrial process, was originally developed to remove unwanted organic materials from the agricultural and industrial waste streams. The derived product: earthworm castings, is now recognized as a high value material which, when blended with soil, can restore soil tilth by correcting the imbalances caused by the over-utilization of petrol-chemical based fertilizers; thus enabling crops and plants to naturally combat pests and diseases, all resulting in increased crop production and general plant health. Using European technology we began researching production processes and the potential of Vermicomposting over 20 years ago. In 1991 we built the first American flow through Vermicomposting processor in Portland Oregon which continues to handle more than 2,000 tons of food waste per year at an annual cost savings of approximately $70,000.00. The Worm Castings are sold as an Organic soil amendment or mixed to form valuable plant growth media, as well as providing a natural pesticide and fungicide. In 1997: Awarded our first of three Phase I, and Phase II USDA-SBIR grants enabling advanced engineering, design and process modifications to be made in order to achieve a greater understanding of the production process and the products potential. In collaboration with Ohio State University, and Professor Clive Edwards, these grants supported extensive field and greenhouse trials using Vermicompost on a wide range of fruits, vegetables and ornamentals. The results clearly demonstrated that the affects were nutritional - as all experimental plants received the same full range of nutrients and remarkably small quantities of Vermicompost promoted enhanced germination, growth, flowering and yield on a variety of crop plants. Agricultural wastes, food and garden wastes, paper waste, and bio-solids from waste water treatment plants, when processed by earthworms, all showed similar results. With the aid of two additional USDA- SBIR grants - again collaborating with OSU and Dr. C. Edwards - we investigated a range of structural and functional comparisons between Vermicompost and traditional types of compost. The continuous-flow production process does not allow nutrient leaching as occurs with conventional thermophilic composting and some less efficient methods of Vermicomposting There were large physical, chemical and biological differences, all seemingly related to leachate control and the organic waste passage through the earthworms gut. Vermicomposting was far more efficient in controlling odors and other vector issues. With high worm populations and optimum conditions Vermicomposting is much faster than most conventional composting processes. The percentages of Nitrogen, Potassium, Potash, Magnesium, and Calcium - in forms readily available for plant uptake - are much greater in Vermicomposts. Microbial activity is much greater in finished Vermicompost; maintaining many types of bacteria and fungi that contribute to soil health and fertility. Our research showed - in laboratory, greenhouse and field trials - that a specific amount of Vermicompost, added to commercial potting mediums, suppressed diseases, insect populations and insect damage to and on plants grown in Vermicompost treated soils. It is now widely accepted that the readily available micro organisms available in Vermicompost are the likely source of the plant growth regulators and Humates now known to be responsible for the increased germination, flowering and yields found in the plant growth trials. The project then focused on investigating the reason why the smaller particle size and greater moisture holding capacity in Vermicompost contributed to a decrease in soil nutrient leaching when Vermicompost was added to soils; demonstrating the destruction of viable weed seeds through Vermicomposting and

the destruction of humane pathogens in contaminated organic wastes during Vermicomposting. This second part of the Phase I, Phase II: Plant Pest, Disease and Human Pathogen Control results, according to the EPA 503 Regulations, achieved Class A material in 60 days with bacterial levels for Salmonella, Ecoli, and viable Helmath Olva were all non-detectable. We developed our operational protocols from this research, and this research and operational training goes with every system Other investigations concentrated on the properties of Vermicompost that increased plant growth. The increased plant growth observed greatly exceeded any of the nutrient inputs applied and all recent plant growth trials received balancing levels of nutrient inputs to ensure nutrients were not the cause. Small additions of Vermicompost decreased the incidence of various plant diseases and the numbers of plant parasitic nematodes were suppressed. Further research investigating production methods (Third part of Phase I and II) and effective practical applications of water soluble elutriates for foliar application - for immediate disease and pest control - are ongoing. Initial results were completed in June 2009 : Liquid Extracts for Disease and Pest Control. Heat sterilization of finished Vermicompost was shown to remove all plant growth enhancing properties, but these could be restored by the addition of aqueous extracts of un-sterilized Vermicompost. This demonstrates the key factor is clearly microbial, most likely associated with plant growth regulators and increased levels of humic acid and folic acid found in Vermicompost. Results showed increased growth effects were more frequent and more pronounced at specific concentration levels and application rates. When plants were grown in less specific blends - or in mixes of greater concentrations of Vermicompost - the beneficial growth, disease and pest control was greatly reduced or lost completely. o This result was unexpected, but confirmed by detailed and rigorous studies using a wide range of Vermicompost substitutions in a commercial plant growth media and in a wide range of plant species. o Optimum germination, growth, flowering, and heavier fields occurred only in a specific formulation that included nutrients other than what is in the Vermicompost. o This takes us down a path that suggests that the chemical or biological agent - that is providing the disease control and triggering the plants ability to respond systemically to pest and disease issues - is either a soluble uptake or has to be manufactured by the plant as an antagonist. o Conclusion: too much Vermicompost can block the functions that triggers these responses; similar to the way too much nitrogen locks in the leaves and does not allow the proper function of the plant. Lastly, vigorous, healthy plants, as were observed when grown with Vermicompost, are far less susceptible to attack by plant pests and diseases. Tolerance, resistance, suppression, or the ability to manufacture an antagonist to plant pests or diseases are sometimes difficult to distinguish, but decreases in lesions and other symptoms, and decreases in the numbers of causative organisms have been found. Plants Diseases and Pests During the development phases of this project, various tests and trials of equipment and product were made. All the experiments were done under the strictest controlled conditions and the results were analyzed statistically. Laboratory, greenhouse and field trials were conclusive, in the plant growth effects as well as pest and disease suppression. These trials included: Ornamentals such as marigolds, asters, petunias, chrysanthemums, impatiens and sunflowers Vegetables such as tomatoes, peppers, carrots, onions and lettuce Fruits such as raspberries, strawberries, grapes, peaches, pears, apples and walnuts

All showed a positive results with increased germination, faster growth rates, earlier flowering and fruiting, and increased yields with no loss of quality in the fruits. Below is a list of experimental trials completed so far. Research List FUNGI DISEASE PLANT Pythium ultimum Damping off Cucumber Rhizoctonia Solani Root rot Radish Verticillum spp. Wilt Strawberry Sphaerotheca Fulgimae Mildew Grapes Phomopsis spp. Phomopsis Grapes Plectosporium Tabacinum Blight or Whitebspeck Pumpkins INSECTS DAMAGE PLANT Flea Beatle, Mealy Bug (Pseudoccocus sp) Foliage Tomato Aphid (Myzus persicae) Folage Cabbage & Peper Caterpillar (Pieris Rapae) Foliage Cabbage Spider Mite (Tetranychus urtiace) Foliage Eggplant & Bean Numerous Plant Parasitic Nematodes spp. Root Tomato, Pepper, Strawberry, Grape Heterodera Glycine Root Soybean List of the USDA - SBIR Research Projects Completed: Vermicomposting Reactor: Product Testing and Commercialization This Project had two phases ( Proposal # 99-03201): started in 1998 and ended in November 2000

Suppression of Plant Pests and Diseases and Human Pathogens By Food Waste Vermicomposting Phase I May 2002 - November 2003 ( Proposal # 2002 00083) Phase II October 2003 - March 2004 ( Proposal # 2003-04048) Current Projects: Effects of aqueous extracts from Vermicompost (teas) On crop growth and in suppressing plant diseases, Nematodes and arthropod pests Phase I May 2006 - November 2006 (Proposal #2006-00053) Phase II, started in September of 2007 Preliminary report: June 2008 Project ending June 2009 Oregonian Article: