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Alternative Wheats Dark Northern Spring

         
     
        

Alternate Wheats In the dryland small-grain producing areas of eastern Washington, alternate crops, such as safflower, corn, mustard, sunflowers and flax, are often thought of as non-traditional crops for the region. However, alternate, non-traditional crops may be any crop other than soft white and white club wheats, either winter or spring types, which are normally produced in the region.

Alternate wheat types which fall into this category, and which have shown potential for the region, include hard white spring wheat, dark northern spring wheat and durum. The advantage of alternate types of wheats is that they can be produced using the equipment already in use to produce the soft white and white club wheats.

PRODUCTION INFORMATION

DARK NORTHERN SPRING WHEAT

Dark Northern Spring wheat is a market subclass of Hard Red Spring Wheat, which, in turn, is one of eight market classes of wheat. There are three market subclasses of Hard Red Spring Wheat. To qualify as DNS, the grading standards require 75% hard, dark vitreous (HDV) kernels.

Compared to producing hard white spring wheat, the risk factors are higher for producing dark northern spring wheat. The yields for hard white spring wheat tend to be slightly higher than for dark northern spring. The DNS price can be higher, but input costs in the form of seed and fertilizer, are also higher. Over the past 20 years, prices have mostly averaged higher than for soft white wheat, and at times this difference has been fairly substantial – as much as $2 per bushel.

DNS producers are subject to both premiums and discounts when selling their crop, and these can be quite volatile. In general, any DNS with a protein level below 13% may be subject to a discount, while a premium will be paid for protein levels above 15%.

On September 14, 1999, the market price for DNS at 14% was $3.67/bushel. The premium for protein was 7 cents for each ¼% protein above 14%. The discount was 12 cents a bushel for each ¼% protein below 14%. On the same day, the market price for soft white was $2.89.

Fertility tests conducted at Pullman in 1998 investigated three types of fertilizer applications – fall, spring and split. These trials evaluated nitrogen fertility rates of 40, 80, 120 and 160 pounds per acre. Protein levels were significantly different for the fall and split fertilizer applications compared to the spring fertilizer application. However, the timing of the application did not significantly affect grain yield. In general, the fall and split fertilizer applications, under the different application rates, resulted in about 1% more protein than did the spring fertilizer application.

On the other hand, WSU extension researcher Aaron Esser conducted on-farm tests in 1999 that compared returns from different fertilizer treatments using three DNS varieties and one SWSW variety. In these, the spring fertilizer application produced higher protein levels than did the fall and split fertilizer applications for the DNS. However, in these trails the higher yields from the soft white wheat produced a greater economic return than did any of the DNS treatments.

The trial at Pullman found that a protein level of 12% required 3.1 pounds of N/bushel of grain produced. For 14% protein, the requirement was 3.6 lbs. of N, and for 16%, the requirement was 4.2 lbs. of N. This can be compared to a requirement of 2.3 lbs. of N per bushel of grain for soft white spring wheat in a precipitation zone of less than 21 inches annually, or 2.4 lbs. of N when precipitation is above 21 inches annual. An on-farm test near Wilbur required 4.4 to 5.0 lbs N/bushel available to obtain desired protein levels and was more economical than 3.8 lbs N/bushel available.

There is some conjecture that DNS requires higher levels of sulfur than does soft white wheat. Trials conducted at Ralston found no significant differences in yield, protein levels or test weight. However, the trends were toward higher yield, protein and test weights with the additional S. This research will be repeated.

When it comes to producing dark northern spring wheat, researchers conclude that producers must make sure their anticipated price for DNS will justify the potential yield loss compared to soft white, as well as the additional costs of the inputs. They summarize that it is hard to beat yield when producing these wheats. Economic analyses indicate varieties with higher yields will produce higher net returns than those with low yields, even if protein is lower in the higher-yielding varieties.

There is also strong evidence that an untimely rain before harvest will reduce protein content at harvest time. In one trial, a field of DNS surrounding a test plot produced protein at 14.2%, but the protein level for the test plot was significantly lower when harvested two to three weeks later after receiving an inch of rain.

MARKETING

DARK NORTHERN SPRING

The United States produces about 30.9 million acres of hard red spring wheat, 9 million acres of soft red winter wheat, 4.5 million acres of soft white wheat, both winter and spring types, and 14 million acres of hard red spring wheats. In the Pacific Northwest, red wheats were the first types grown. Because of quality problems with yellow berries which reduced the percentage of DHV kernels, production switched over to the white wheats grown today.

The three market subclasses for red spring wheat are dark northern spring wheat which contains 75% or more DHV, northern spring wheat which contains between 25 and 75% DHV, and red spring wheat which contains less than 25% DHV.

Discount schedules will also be applied to dockage and percent DHV. Dockage will be 3 cents each for each ½% from 1.1% to 3%, and 5 cents each for each ½% over 3%. The discount for DHV will be a loss of 3 cents a bushel for DHV between 50% and 75%, 6 cents a bushel for DHV between 25% and 50%, and 9 cents a bushel for DHV of 25% or less. Premiums and discounts are figured at the time the grain is either marketed or delivered.

There is a profit potential for producing DNS. At the time the Portland price for soft white was $2.98 per bushel, the DNS price was $3.97. Historically, according to Howard Nelson of the Central Washington Grain Growers, the average price premium for DNS has been 98.31 cents over soft white at Portland. The minimum price premium has been 16 cents per bushel, and the maximum price premium has been $2.52 per bushel.

There are also price risks associated with not making 13 to 14% protein. These risks should be assessed according to a grower’s past history of producing DNS, as well as potential price for feed compared to the discounted price.

There are storage and handling factors to consider for DNS. If using commercial storage, there is no segregation by protein and all classes are co-mingled. When shipping, DNS should be shipped by quality factors to limit discounts. This generally means shipping in truckload or railcar-load quantities.

In summary, Nelson says growers should consider producing DNS if they have been successful in the past at making 14% protein. He advises that they should not skimp on inputs because failure to make 13% will be costly. Also, if they do grow DNS and do not make 12% protein, they should consider alternative markets, such as the feed market or taking a market loan on the crop.

GROWER EXPERIENCES

GARY GABREATH – Dark Northern Spring

The Galbreaths have grown DNS for nine years, always on a re-crop basis. They have grown Butte 86 and Kulm in the past and are now growing Spillman. They started growing DNS primarily because of the price advantage.

Galbreath said he is still searching for the magic formula to ensure protein. They apply N at a rate of 3.7 lbs. per projected bushel of yield and use a 3:1 N to S ratio.

They did make protein last year at 15.1%, and Galbreath thinks the real dry growing period may have been a factor in accomplishing this. They have had mixed results on protein over the years.

In 1997, he said, they grew mustard and followed it with DNS. The protein levels were good.

He thinks fertilizer placement can affect protein levels. They use a Yielded no-till drill which places the fertilizer accurately, and they put all the N on with the drill. They fertilized for a 35-bushel crop. Compared to the DNS, Galbreath said their white wheat yields were about 7 bushels higher. Their DNS yields have been average or slightly above with good protein.

Galbreath said they use a seeding rate of 10 to 20 pounds per acre higher than they use for white wheat.

He said they will have DNS next year. They will stick to the 3.7 lbs. of N fertilizer rate and the 3:1 N to S ratio. They do not fall fertilize.

Cooperating Agencies: Washington State University Cooperative Extension, United States Department of Agriculture, Eastern Washington Counties. Cooperative Extension programs are available to all without discrimination. Evidence of noncompliance may be reported through your local Cooperative Extension office.

 
                         
 
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