Irrigation Past to Present June 23, 2010

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Irrigation Past to Present June 23, 2010 Gary Zoubek, Extension Educator, York County Brandy VanDeWalle, Extension Educator, Fillmore County Nebraskans have long realized that using soil and water resources wisely is important, particularly since the state's economy relies on agriculture. Irrigation ditches were constructed in Nebraska as early as 1856. However, Nebraska's current extensive irrigation system stems from the droughts of the 1890s and 1930s. Initially, Nebraska received all its irrigation water from streams and rivers. These waterways continue to supply water for much of Nebraska's cropland today. What rivers are most important from an irrigation perspective? The Platte, Loup and Republican rivers were especially important. Estimated Irrigated Acres In Nebraska Year Surface Water Groundwater 1860 9,000-9,000 1890 12,000-12,000 1900 150,000 1,000 150,000 1920 450,000 1,000 450,000 1940 500,000 40,000 540,000 1950 600,000 470,000 1,070,000 1960 850,000 1,650,000 2,500,000 1970 1,000,000 3,000,000 4,000,000 1980 1,000,000 6,200,000 7,200,000 1990 1,000,000 7,000,000 8,000,000 2000 82, 478 Registered Wells 8,150,000 2005 91,328 Registered Wells 12/06/2009 106,370 Registered Wells * Nebraska Agricultural Statistics Service

Since 1940, however, irrigation from wells has increased dramatically. Of Nebraska's 8 million irrigated acres in 1990, about 7,000,000 million acres are irrigated from wells, with the rest coming from streams and rivers. Nebraska State Irrigation Association formed in 1893. Irrigation Wells 1910-1936 - 1200 Peaks in mid-50's & 70's 1992-75,570. Currently - Approximately 113,000 Registered Irrigation Wells in Nebraska. Only two other states, California and Texas, have more irrigated acres, and Texas has been experiencing a steady decline in irrigated acres over the past quarter century. Much of the Nebraska is lying over the Ogallala Aquifer. It is one of the premier sources of U.S. groundwater and is a valuable irrigation endowment for the state of Nebraska. In 1889, the Nebraska legislature passed the Rayner bill, the state s first irrigation law. Under this law people could take water from streams after they had posted notice at the diversion point. Beneficial use was the basis of a person s right to water. An 1889 survey reported that Nebraska had 214 irrigators. An irrigated farm average 55 acres. The total land irrigated in Cheyenne, Scotts Bluff, Lincoln and Sioux counties was 11, 744. A well that flows is called an artesian well. Irrigation Types 1) gravity(flood, siphon tubes, gated pipe, surge gated pipe) 2) sprinkler systems(center pivot, tow-line, big gun) 3) trickle or drip irrigation On-Farm Delivery Methods for irrigation Gravity Irrigation Initially canals and ditches were run from rivers or wells and areas cut so that water would go down the rows. A major problems was cutting and uneven distribution. Irrigation Spile (Lath boxes) Somewhere, at some time, an ingenious farmer, tired of the problem of cutting the ditch bank and its uneven water distribution, came up with lath boxes. Cut in to 2-foot pieces and made in to long narrow boxes. The lath boxes were mudded into the ditch banks so each row of corn received the only the water each box could provide. Lath boxes meant that the volume of water flowing down each row was far more uniform than by the bank-cut method. The only disadvantage was that sometimes they d wash out. Siphon tubes

Small curved pipes, typically 0.5 to 4.0 inches in diameter, that deliver water over the side of a head ditch or lateral to furrows or rows. The widespread use of siphon tubes for irrigation was due to their development in 1934 and subsequent marketing by Cozad irrigator, farmer and entrepreneur. He worked hours and hours to achieve a uniform water distribution system. His first siphon tubes were made from discarded boiler flue pipes. They were steel and heavy. In 1942 with the advent of plastic tubing he began building siphon tubes out of plastic. Nebraska Plastics Inc., COZAD trade name siphon tubes was started in 1945. Most siphon tubes used in this area were made of aluminum. Even used to have siphon tube setting contests. Gated pipe The first gated pipe was produced in California. Hastings Irrigation Pipe was the second firm and is one of the largest in the US. Hand-moved sprinklers With the development of pressurized city and town water systems, sprinklers were developed to water lawns and gardens. Sprinkler irrigation on a larger scale began with city parks and golf courses, then high value crops and finally to other agricultural crops. The first spring-activated rotating sprinkler head was developed in 1933. Tow-line or (Skid-tow) sprinkler lines The first two-line sprinkler system was invented in 1950 in Portland Oregon by W.H. Stout. They were modified hand-moved sprinklers that could be moved with a tractor. T-L Irrigation of Hastings was the first manufacturer of towline systems in Nebraska. They re much more labor-intensive than center-pivot or lateral-(linear) move sprinkler systems. Volume-gun sprinklers During the 1970's traveling volume-gun sprinklers gained great popularity with farmers especially for irregularly shaped or long rectangular fields. Center Pivots self-propelled sprinkler systems Center pivots were invented in Nebraska and this technology that has developed over the past half century, has transformed irrigated agriculture worldwide. Not only has it opened up lands which would otherwise not be irrigable, but it has also greatly enhanced water use and other input efficiencies on land that was previously gravity irrigated. Thousands of Nebraska s irrigated acres are being converted each year to center pivot systems. In 1947, Frank Zybach, a wheat farmer in Colorado went to a demonstration of had move sprinkler irrigation and thought, their has to be a better way. By the next summer he build a small two-tower experimental center-pivot system. He joined efforts with E. Trowbridge in Columbus and in 1953-1954 they produced 19 systems. They had a difficult time selling the new concept. Farmers wouldn t try and bankers wouldn t fund. Valley Manufacturing (Valmont Industries) purchased the company in 1954. The pivots save much labor and worked on rolling land.

Nebraska Irrigated Acreage by Statistical District, 2000 District Irrigated % Irrigated Center Pivot Irrigated Other Irrigation Center Pivots as a percent of 1,000 acres-- Percent 1,000 acres-- Northwest 3,013 709 23.5 422 287 59.5 North 2,033 537 26.4 520 17 96.8 Northeast 3,390 877 25.9 776 101 88.5 Central 2,144 1,210 56.4 535 675 44.2 East 4,034 1,463 36.3 784 679 53.6 Southwest 2,568 924 36.0 738 186 79.9 South 1,857 897 48.3 399 498 44.5 Southeast 3.054 766 25.1 433 333 56.5 State 22,093 7,382 33.4 4,608 2,774 62.4 Corner systems and lateral-move sprinkler systems. Corner systems and lateral-move sprinkler systems were developed in 1975-1976. Make it possible to irrigate square or rectangular fields. Surge irrigation Surge irrigation gained popularity in the 80's. Is a method to improve the efficiency of gravity irrigation by alternating the irrigation cycle. Drip irrigation systems Other Types of Irrigation Systems Solid-set sprinklers with risers Rotating Boom-type sprinklers LEPA sprinkler systems KROY - York Spelled backwards began making center pivots in 1968 Paul Geis Automobile dealer. Still makes aluminum pipe as well as plastic pipe. In the late 1960's Gus Thieszen a Henderson well driller began building a center pivot under the name of Oasis. Only for a few years. Many other small firms over the years, but now five major companies. In the Book Flat Water: A History of Nebraska and Its Water It reports that the top five center pivot manufactures in the country are all in Nebraska. They are: Valley at Valley, Zimmatic at

Lindsey, Electrogator at Deshler, T-L Irrigation at Hasting, and Lockwood at Gering. In all more than 80 companies tried making center pivots. Nebraska Center Pivots 1972-2,725 1980-18,785 1988-27,617 1997-42,444 Units of Water Measurement Water measurement is an important tool for checking irrigation management skills. Irrigators can use one of several methods to measure water. There are two conditions under which water is measured--at rest and in motion. Volume units are used for water at rest. Water in motion is described in units of flow. Volume units describe how much space a given amount of water will occupy. Water in tanks and ponds is an example of water at rest. Common units of volume are gallons, acre-inches, acre-feet, and cubic feet. These units are defined as: Acre-inch--the volume of water that would cover an acre one inch deep. Acre-foot--the volume of water that would cover an acre one foot deep. Cubic foot--the amount of water that would fill a container one foot wide by one foot long by one foot deep. Flow units tell how fast a given volume of water is moving past a fixed point. They can be used to describe the discharge of a pump, flow in a canal or river, and discharge of a sprinkler, gate, or siphon tube. Flow units frequently used in irrigation are gallons per minute (gpm) and cubic feet per second (cfs). Gallons per minute--the rate of flow necessary to fill a gallon container in one minute. Cubic foot per second--the amount of water that would flow in a stream one foot wide by one foot deep and moving at a rate of one foot every second. List of Equivalents Units of Flow Volume Units 1 gallon = 8.33 pounds 1 cubic foot = 7.48 gallons 1 acre-inch = 3,630 cubic feet 1 acre-inch = 27,154 gallons 1 acre-foot = 43,560 cubic feet 1 cubic foot per second = 449 gallons per minutes (450 for practical purposes) 1 cubic foot per second for 1 hour = 1 acre-inch 452 gallons per minute for 1 hour = 1 acre-inch 1 gallon per minute = 0.00223 cubic feet per second 1 gallon per minute = 0.00221 acre-inches per hour 1 acre-foot = 325,851 gallons Length Units Area Units 1 mile = 5280 feet 1 acre = 43,560 square feet