Monthly Archives: June 2013

Saving Money with Sustainable Landscape

Saving Money with Sustainable Landscapes

By Michael Chaplinksy, Turf Feeding Systems

Plants need less water than you think when they live in harmony with soil biology.

The segment of the green industry that maintains turfgrass, sports fields and large greenscapes has seen many really significant changes over the past 20 years. Even so, for the most part, we’re doing the same thing, applying chemical fertilizers and overwatering, over and over again, but expecting different results. This is the definition of insanity, according to Albert Einstein.

However, there is a simple, cost-effective method that landscape professionals on the cutting edge are starting to use. It’s called sustainable landscaping, and it doesn’t take a genius to do it.

What is sustainable landscaping? Definitions vary, but in general, it means landscape practices that are in harmony with nature and the local climate, requiring minimal inputs. Sustainable landscape practices can reduce water use by up to 50 percent. They can cut labor costs and the need for chemical fertilizers. The end result is better soils and healthier, more disease-resistant plant material.

Turfgrass managers who have instituted sustainable practices are noting significant results. Focusing on soil and plant health, this method is an efficient management program for any facility or landscape. Maintaining soil nutrition is just as important as any other turfgrass maintenance task, such as mowing or aeration.

The first thing a facility turf manager or maintenance contractor who wants to begin a sustainable landscaping program should do is a bioassay of the soil. This test will evaluate its overall health, its biology and biodiversity. It will also find any pathogens that might be in it. If amendments are needed, they can then be applied by fertigation. This is simply the process of applying quality liquid nutrients through the irrigation system.

But that’s not the goal, that’s just the start. What we’re seeking is a relatively self-sustaining biosphere in the soil that replicates what nature does by itself.

Soil feeds plants. Dying plants feed soil, which in turn feeds plants. This cyclical, symbiotic process has been enacted by nature for millions of years. In jungles, grasslands, forests and other native areas untouched by humans, plants are sustained by this relationship between the soil, the plants and the trees. No one feeds the plants chemical fertilizers out in nature, yet somehow they thrive. Nature does a better job of nourishing plants than we ever could.

Grasses turn over their roots every two to three years, leaving the soil with thousands of pounds of dead roots to decompose. In a soil rich in biodiversity, the dead roots and other organic matter will be converted to organic humus particles. Leaving the roots there to decay naturally, instead of removing them, is like tilling in rich potting soil, only cheaper and more effective.

As soil health improves, it becomes more nutrient-efficient and needs less fertilizer and water. Organic humus particles have great storage capacity. Humus-rich soil becomes a very efficient biological dynamo that will attract, hold and release water and nutrients at a rate ten times higher than clay soil. It increases the efficiency of any mineral or synthetic fertilizers that may then be applied.

This process also frees up nutrients such as phosphorus, iron and boron that are trapped in the soil but unavailable to the plants. They only need to be released so the plants can uptake them.

Roots are where a plant stores water and nutrients. The healthier the soil, the deeper and denser the roots will be. A plant with a good root system is a more efficient plant, one that needs less water— up to 30 percent less in some cases.

The result is higher quality turfgrass.

Plants in soil rich in probiotics will not be stressed by the growth process. They’ll have thicker cell walls and be more disease-resistant, reducing the need for chemicals. Although sustainable practices may not eliminate the need for chemicals entirely, it can reduce their usage to a much lower level, saving money.

Of course, even with sustainable practices, other factors may interfere with soil health. There are many landscapes that have a very high pH, because of bicarbonates in the water or soil. If the pH is too high, nutrients will be unavailable to the grass and will go to waste. Applying sulfur or gypsum as a buffering agent is a simple, low-cost solution to this problem.

Sodium is another concern. Landscapes and sports fields located in coastal areas can suffer a buildup of sodium, especially in clay soils. Too much salt is toxic to plants. Unfortunately, it can’t be flushed by rain and the more it’s irrigated, the more damage is done. Once grass is poisoned with sodium, it’s like irrigating with seawater.

Fortunately, fertigation with organic additives like humic acid and organic enzymes has had great success on many sodium-tainted landscapes. This method should be applied first as a treatment and continued as a maintenance practice.

The overuse of chemicals has made many soils sterile. Beneficial bacteria is killed along with the bad. Some groundskeepers want to keep their soils that way so they don’t have to worry about disease. But when soils are brought back to life and made biologically active, the plants they feed are naturally resistant to disease. If you need evidence of this, take a look at the native areas around your sports field or landscape. Do you see any diseased plants there?

By bringing nature into your management practices, you’re starting up a biological engine that will never stop running. This engine will create stronger, better, more disease-resistant plants and grasses that use water and nutrients more efficiently. Your landscapes and fields will look better, be healthier and cost less to keep that way.

A new market is being created to promote and support sustainable landscapes. Across diverse parts of the country, experienced professionals are leaving the traditional landscape maintenance business and creating a new service industry.

This natural cycle is the agronomic engine that feeds plants all over our planet, and it depends on healthy soil.
The future of agriculture and all areas of agronomy rely on growing and managing healthy plants. Just as physicians promote a healthy, disease-resistant body for their patients, healthy soil is the important foundation for a healthy plant.

James Haley

Cell 480-444-8776
TerraPro, Inc.
4856 E. Baseline Rd. #104
Mesa, AZ 85206
james@terraproaz.com
Office 480-355-1393
Fax 480-452-0347

Never Give Up

Never, ever give up
Whatever you do… don’t give up. Don’t give up on your dreams and don’t give up on yourself. If what you do is worth it then you should go after it no matter what, if it’s something you couldn’t get out of your mind no matter how much you tried – go after it. It’s better to fail than wonder “what if” for the rest of your life.

Arizona Cicadas

Insects We See and Hear in the Summer Months
Desert Cicada

These insects are commonly heard in the summer buzzing or singing in trees. Cicadas are 1-1/2 to 2 inches long with thick bodies and bulging eyes. The most common species in lower elevations of Arizona is the Apache cicada, which is dark-colored with a pale tan band just behind the head. The adult males produce the loud, shrill noise to attract females. The male Cicada may be the loudest insect known to man, their shrill can be heard as far away as 400 yards. Cicadas are not harmful to humans in any way. They do not bite or carry diseases. The cicadas spend most of their lives as immature’s, feeding underground on the roots of trees or other perennials. The immature’s move out of the soil during summer evenings, starting in June about Father’s Day. They leave behind holes about one half inch in diameter. They crawl up nearby tree trunks, plants or buildings and cling there. If you watch, eventually the back of the nymph begins to split open and the adult winged cicada emerges. Homeowners often find the leftover skins attached to foundations or trees. Cicada adults live three to four weeks. After mating, the female cuts open twigs with her saw-like egg-laying apparatus, and deposits her eggs in the slits. When the eggs hatch, the nymphs drop to the ground and burrow into the soil in search of food.

The species of cicada found in Arizona finish their life cycles in two or three years. There is one species found east of the Mississippi, however, called the 17-year cicada. The immature’s of this species stay underground, feeding away on tree roots, for 17 years! Then, using some clue that is not yet well understood, all the adults come out at the same time to mate and lay eggs for the next generation

Cicada Ambience on the Peavine Trail: http://youtu.be/ciWORJjayVE via @YouTube