Choosing a Soil Amendment Fact Sheet No
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Port Silt Loam Oklahoma State Soil
PORT SILT LOAM Oklahoma State Soil SOIL SCIENCE SOCIETY OF AMERICA Introduction Many states have a designated state bird, flower, fish, tree, rock, etc. And, many states also have a state soil – one that has significance or is important to the state. The Port Silt Loam is the official state soil of Oklahoma. Let’s explore how the Port Silt Loam is important to Oklahoma. History Soils are often named after an early pioneer, town, county, community or stream in the vicinity where they are first found. The name “Port” comes from the small com- munity of Port located in Washita County, Oklahoma. The name “silt loam” is the texture of the topsoil. This texture consists mostly of silt size particles (.05 to .002 mm), and when the moist soil is rubbed between the thumb and forefinger, it is loamy to the feel, thus the term silt loam. In 1987, recognizing the importance of soil as a resource, the Governor and Oklahoma Legislature selected Port Silt Loam as the of- ficial State Soil of Oklahoma. What is Port Silt Loam Soil? Every soil can be separated into three separate size fractions called sand, silt, and clay, which makes up the soil texture. They are present in all soils in different propor- tions and say a lot about the character of the soil. Port Silt Loam has a silt loam tex- ture and is usually reddish in color, varying from dark brown to dark reddish brown. The color is derived from upland soil materials weathered from reddish sandstones, siltstones, and shales of the Permian Geologic Era. -
Permaculture Principles
An Introduction by Damian Mason “Permaculture is a philosophy of working with, rather than against nature; of protracted and thoughtful observation rather than protracted and thoughtless labor; and of looking at plants and animals in all their functions, rather than treating everything as a single product system.” - Bill Mollison Organic Gardening Sustainable Cities Native Plants Food Banks & Gleaning Aquaponics Programs Greywater Systems Animals & Bee-Keeping Natural Buildings Disaster Relief & Preparedness Farmer’s Markets Conflict Resolution Slow Food Solutions to Climate Community Gardens Change Eco-villages & Cohousing Bioremediation Social Justice Beavers are a keystone species that turn deserts into gardens and mitigate drought & climate change. Uses local material to build home & makes habitat for many others as well. Shares lodge in winters. Hydrology 101: Slow it, Spread it, Sink it Take care of the earth. Leave it better than you found it. Care for all people. Return the surplus so that all may get a Fair Share. The focus is on creating a synergy where the whole is greater than the sum of its parts. “Beauty is in the eye of the beholder.” By taking time to engage with nature we can design solutions that suit our particular situation. Example: Weed or medicinal herb? Consider a plant that, when used as a poultice, has the ability to radically speed up wound healing. When eaten they boost the immune system, while the seed heads produce the digestive aid psyllium husk. This remarkable plant is often found just outside of the back door. It is plantain, a plant we usually dismiss as a ‘weed’. -
Using Contract Language to Improve Recycling
DOWNSTREAM DUE DILIGENCE TO CREATE CLEAN AND MARKETABLE FEEDSTOCKS: USING CITY CODE AND CONTRACT LANGUAGE TO ACHIEVE RESPONSIBLE RECYCLING May 2020 This report is in support of King County’s Responsible Recycling Task Force, Task 5A, which explores using city code and city-hauler contract language to favor or require proper sorting, processing, and recycling of collected recyclable materials. Contract and code language should address all steps and parties in the material handling process including haulers, sorters, brokers, processors, and manufacturers who use recycled material. The report begins with a discussion of how we call out or identify proper recycling, some existing methods of codifying responsible recycling, general approaches for contract language, and some recommended sources for code and contract language. How Do We Know “Responsible Recycling” When We See It When we sort materials for recycling, we expect they will be processed in ways that conserve resources and protect human health and safety. However, different materials have different recycling pathways, which can change often. Markets fluctuate and brokers react. This makes it difficult to identify the final processor or end-user of a material, and therefore hard to assess if the process is environmentally and socially responsible. City codes and city-hauler contracts can be used to define proper recycling or specify environmental and human health practices necessary for proper recycling. Different cities and organizations use various strategies to identify and establish proper recycling outcomes: • Washington State’s Utilities and Transportation Commission (UTC) requires that “local markets” be used whenever possible. • Bothell’s Recology contract states that electronics & small appliance processors must be "fully-permitted and properly operated" and "legitimate". -
Nutrient Management and Imbalances David H
98 Nutrient Management and Imbalances David H. Gent, J Robert Sirrine, and Heather M. Darby Hop plants produce abundant biomass in the form of bines, leaves, and cones. High- yielding plants such as hop require adequate nutrition. Many of the various nutrients required by hop may be deficient or in excess of the crop’s needs. It can be difficult to pinpoint the cause of abnormal plant symptoms, especially if multiple production factors lead to the same symptom. General symptoms associated with nutrient imbalances are described in this section, as well as known nutrient interactions with diseases and arthropod pests. Fertilization recommendations are beyond the scope of this pest management guide and are not provided. Recommendations vary widely in published literature, differing among production regions, varieties, irrigation methods, soil types, and production goals. Readers should seek input from local experts for guidance appropriate to their region and situation. Boron Iron Boron deficiency can result in delayed Iron deficiency is first observed on emergence of shoots; stunting, distortion, young leaves as yellowing between veins, and crinkling of young leaves (Fig. 257); while veins remain green (Fig. 260, right- and yellowing and death of shoot tips (Fig. hand image, and Fig. 261). Iron deficiency 258). Leaves of affected plants may be small is most common in alkaline soils, although and brittle, and may develop a fluffy-tipped it can be induced in highly acidic soils appearance due to impaired development (approximately pH 5.7 or less) because of lobes (Fig. 259). Deficiencies are most of enhanced solubility and uptake of common in acid and/or sandy textured soils. -
Fixed Nitrogen in Agriculture and Its Role in Agrocenoses
Agronomy Research 19(2), 601–611, 2021 https://doi.org/10.15159/AR.21.086 Fixed nitrogen in agriculture and its role in agrocenoses S. Tanchyk1, D. Litvinov1, A. Butenko2,*, O. Litvinova3, O. Pavlov1, A. Babenko1, N. Shpyrka1, V.Onychko4, I. Masyk5 and T. Onychko4 1National University of Life and Environmental Sciences of Ukraine, Agrobiological faculty, Department of Agriculture and herbology, Heroyiv Oborony 12, UA03041 Кyiv, Ukraine 2Sumy National Agrarian University, Faculty of agricultural technologies and environmental, Plant growing Department, H. Kondratieva 160, UA40021 Sumy, Ukraine 3National University of Life and Environmental Sciences of Ukraine, Agrobiological faculty, Department of Agricultural chemistry and quality of plant products, Heroyiv Oborony 12, UA03041 Кyiv, Ukraine 4Sumy National Agrarian University, Faculty of agricultural technologies and environmental, Department of Selection and seeds named after M.D. Honcharov, H. Kondratieva 160, UA40021 Sumy, Ukraine 5Sumy National Agrarian University, Faculty of agricultural technologies and environmental, Department of Agriculture, soil and agrochemistry, H. Kondratieva 160, UA40021 Sumy, Ukraine *Correspondence: [email protected] Received: February 23rd, 2021; Accepted: May 12th, 2021; Published: May 19th, 2021 Abstract. On typical low-humus black soils in short crop rotations with legumes (25–33%) and without them, it was found that depending on the set of crops in crop rotation and application of fertilizer rates, nitrogen yield per crop is from 355 kg ha-1 to 682 kg ha-1. The recommended fertilization system provided nitrogen compensation for crop yields by only 31–76%. Hence, in the plant-fertilizer system nitrogen deficiency varies from 161 to 370 kg ha-1. The greatest nitrogen deficiency in the soil is observed in crop rotation without the use of fertilizers with the following crop rotation: peas-winter wheat-grain maize-spring barley. -
Compost? Compost Pile?
What Do I How Do I Need to Make Start My Compost? Compost Pile? Start by picking a location. When Here’s What You Need… choosing a location look for one that is: • Well-drained and close to level • In partial shade, to help with Composting water retention • At least 1-foot away from walls, What is Composting? fences, bushes, trees etc. • A convenient spot to place Compost is a dark brown, earthy, Other You May Want to Consider: materials and to get the end crumbly material consisting of • Compost pile location product to its final location decomposed organic matter. • How quickly you want the Once you choose your location you Benefits of Composted Material: materials to breakdown will want to loosen the soil so that When added to soil, compost • How you plan to use your your compost will come into improves soil by helping with finished compost contact with the soil. both its porosity and water Other tools you may want to help retention, while providing you get started: essential nutrients plants require. Now You’re Ready Composting also diverts waste • Compost bin to Begin Your Compost Pile! from the waste stream and our • Pitchfork (compost turner) landfills! • Probe thermometer How does Material Decompose? • Chipper/shredder Thousands of Microorganisms • Wheelbarrow (for transport) work to break down the material. If conditions are properly managed we can speed up the Contact The Maine Department of Environmental Protection, Sustainability Division, for More Information: process. Phone: 207-592-0455 Mail: 17 SHS Augusta, ME Building Your Compost Pile Once you have loosened up the soil at your location, you may want to pile 4” to 6” layer of twigs on top of the plot to encourage airflow at the bottom of the pile. -
General Soil Information and Specs
Extension Education Center 423 Griffing Avenue, Suite 100 Riverhead, New York 11901-3071 t. 631.727.7850 f. 631.727.7130 General Soil Information and Specs Is there an easy way I can tell what kind of soil I am working with? Yes. Use the following ribbon test. 1. Place 2 teaspoons of the soil in your palm and drip water onto it, kneading until it forms a ball. 2. Does the soil remain in a ball when squeezed? If not, you have mostly sand. 3. If the ball forms, squeeze it between your thumb and forefinger into a ribbon of sorts. Loam: Weak ribbon less than 1 inch before breaking. If the ribbon holds together and appears to be “ruffled” or has cracks it, you probably have a silty loam. Clay Loam: Medium ribbon 1 to 2 inches before breaking. Clay: Strong Ribbon 2 inches or longer before breaking, which could explain some of the drainage problems you have been having. Is there a formal definition for sand? Many of the sand materials I have looked at seem completely different from each other. Sand doesn’t have to be 100% sand, and in fact it is any soil material with 85 or more percent of sand. Taken backwards, a sand is any soil material where the percentage of silt PLUS 1.5 times the percentage of clay does not exceed 15. 85 plus 15 equals 100. The official abbreviation is Sa. My specs call for coarse sand. What is that? How does it differ from fine sand? Coarse sand is defined as 25% or more very coarse and coarse sand and less than 50% of any other single grade of sand. -
Improving Soil Nitrogen Availability and Rice Growth Performance on a Tropical Acid Soil Via Mixture of Rice Husk and Rice Straw Biochars
applied sciences Article Improving Soil Nitrogen Availability and Rice Growth Performance on a Tropical Acid Soil via Mixture of Rice Husk and Rice Straw Biochars Gunavathy Selvarajh , Huck Ywih Ch’ng * , Norhafizah Md Zain, Palsan Sannasi and Siti Nuurul Huda Mohammad Azmin Faculty of Agro-Based Industry, Campus Jeli, University Malaysia Kelantan, Kelantan 17600, Malaysia; [email protected] (G.S.); norhafi[email protected] (N.M.Z.); [email protected] (P.S.); [email protected] (S.N.H.M.A.) * Correspondence: [email protected]; Tel.: +60-17-853-7510 Featured Application: This research focuses on using an environmentally friendly technology (mixture of rice straw and rice husk biochars) to sustainably minimize ammonia volatilization, increase soil nutrient retention, and improve rice plant nutrient uptake and use efficiency. The mixture of rice straw and rice husk biochars has a larger surface area and numerous pores to chelate ammonium and nitrate ions. This process will fundamentally reduce the loss of ammo- nia via volatilization from urea fertilizer being applied, thus reducing the excessive use of urea fertilizer in agricultural sector. The biochar at 5 and 10 t ha−1 significantly minimized ammo- nia volatilization by 33.5–40.7%. It resulted in an increase of nutrient uptake, use efficiency, and dry matter production of rice plant. This work may not only contribute to the reduction of urea fertilizer import bill of Malaysia, but also pave the way for better means of adding value to the agricultural waste to avoid environmental pollution. It also contributes to increasing rice produc- tion by solving the problem of ammonia loss from urea fertilizer in tropical acid soil. -
Characterization of Nutrient Disorders and Impacts on Chlorophyll and Anthocyanin Concentration of Brassica Rapa Var
agriculture Article Characterization of Nutrient Disorders and Impacts on Chlorophyll and Anthocyanin Concentration of Brassica rapa var. Chinensis 1 1 1, 2 Patrick Veazie , Paul Cockson , Josh Henry y, Penelope Perkins-Veazie and Brian Whipker 1,* 1 Department of Horticultural Sciences, North Carolina State University, Raleigh, NC 27695, USA; [email protected] (P.V.); [email protected] (P.C.); [email protected] (J.H.) 2 Plants for Human Health Institute, North Carolina State University, Kannapolis, NC 28081, USA; [email protected] * Correspondence: [email protected] Current address is: The Scotts Miracle-Gro Company, Marysville, OH 43040, USA. y Received: 3 September 2020; Accepted: 5 October 2020; Published: 8 October 2020 Abstract: Essential plant nutrients are needed at crop-specific concentrations to obtain optimal growth and yield. Foliar tissue analysis is the standard method for assessing nutrient levels in plants. Symptoms of nutrient deficiency or toxicity occur when the foliar tissue values become too low or high. Diagnostic nutrient deficiency criteria for Brassica rapa var. Chinensis (bok choy) is lacking in the current literature. In this study, green (‘Black Summer’) and purple (‘Red Pac’) bok choy plants were grown in silica sand culture, with control plants receiving a complete modified Hoagland’s all-nitrate solution, and nutrient-deficient plants induced by using a complete nutrient formula withholding a single nutrient. Tissue samples were collected at the first sign of visual disorder symptoms and analyzed for dry weight and nutrient concentrations of all plant essential elements. Six weeks into the experiment, the newest matured leaves were sampled for chlorophyll a, b, and total carotenoids concentrations for both cultivars, and total anthocyanin concentration in ‘Red Pac’. -
Stale Seedbed Practices for Vegetable Production
HORTSCIENCE 36(4):703–705. 2001. tional tillage program. The intent was to deter- mine the best method for killing seedlings in stale seedbed systems and the usefulness of a Stale Seedbed Practices for Vegetable single weed removal pass vs. several passes Production with brief intervening fallow periods. Materials and Methods Brian Caldwell South Central New York Area Vegetable and Small Fruit Program, Cornell Studies were conducted at the NRCS Big Flats Plant Materials Center, at Big Flats, Cooperative Extension, Owego, NY 13827 N.Y., during the 1997 and 1998 growing Charles L. Mohler1 seasons. The soil type was a Unadilla silt loam (course-silty, mixed, mesic, typic Dystro- Department of Ecology and Evolutionary Biology, Cornell University, Ithaca, chrept), and the fields were nearly level. NY 14853 The fields had cover crops of winter-killed oats (Avena sativa L.) and were initially field Additional index words. weeds, cultivation, flaming, glyphosate, purslane, chickweed cultivated and harrowed in Apr. 1997 and May Abstract. Effects of several stale seedbed procedures on weed density and biomass were 1998. Treatments were replicated four times in evaluated on a silt loam soil in central New York. After an initial rotary tillage, weeds were a randomized complete-block design. Plots allowed to emerge and either single or multiple applications of glyphosate, propane flame, measured 3.6 × 3.6 m. spring tine weeder, springtooth harrow, or rotary tiller were used to kill the weeds over a Initial seedbeds were prepared with a tractor 4-week period. The last (or only) application occurred immediately prior to simulated mounted 1.5-m John Deere rotary tiller (Deere seeding of a crop performed by passing an empty seeder through the plots. -
Geotechnical Manual 2013 (PDF)
2013 Geotechnical Engineering Manual Geotechnical Engineering Section Minnesota Department of Transportation 12/11/13 MnDOT Geotechnical Manual ii 2013 GEOTECHNICAL ENGINEERING MANUAL ..................................................................................................... I GEOTECHNICAL ENGINEERING SECTION ............................................................................................................... I MINNESOTA DEPARTMENT OF TRANSPORTATION ............................................................................................... I 1 PURPOSE & OVERVIEW OF MANUAL ........................................................................................................ 8 1.1 PURPOSE ............................................................................................................................................................ 8 1.2 GEOTECHNICAL ENGINEERING ................................................................................................................................. 8 1.3 OVERVIEW OF THE GEOTECHNICAL SECTION .............................................................................................................. 8 1.4 MANUAL DESCRIPTION AND DEVELOPMENT .............................................................................................................. 9 2 GEOTECHNICAL PLANNING ....................................................................................................................... 11 2.1 PURPOSE, SCOPE, RESPONSIBILITY ........................................................................................................................ -
COMPOST FEASIBILITY STUDY April 2017
DISTRICT OF COLUMBIA COMPOST FEASIBILITY STUDY April 2017 COMMISSIONED BY: District of Columbia Department of Public Works PREPARED BY: 416 LONGSHORE DRIVE ANN ARBOR, MI 48105 734.996.1361 RECYCLE.COM TABLE OF CONTENTS Executive Summary ....................................................................................................................................... 1 Background and Purpose .............................................................................................................................. 7 Current Operations ................................................................................................................................... 8 SSO Collection ......................................................................................................................................... 10 Processing ............................................................................................................................................... 11 Organics Collection ...................................................................................................................................... 12 Processing Technology ................................................................................................................................ 14 Organics Outreach ....................................................................................................................................... 16 SSO Curbside Collection Modeling .............................................................................................................