Updated: July 21, 2025

Triticale is a fascinating grain crop that combines the best qualities of wheat and rye. It was developed through hybridization to produce a cereal grain that offers high yield potential, excellent adaptability, and nutritional benefits. Increasingly popular among farmers and gardeners for animal feed, cover cropping, and even human consumption, triticale is gaining attention as a versatile and resilient crop. This article explores what triticale is, its history, uses, benefits, and detailed guidance on how to grow it successfully.

What Is Triticale?

Triticale (scientific name × Triticosecale) is a hybrid cereal derived from crossing wheat (Triticum) and rye (Secale). The name itself is a portmanteau of “triticum” (wheat) and “secale” (rye). Unlike natural grains, triticale was artificially created through selective breeding, aiming to blend wheat’s high yield and grain quality with rye’s robustness and disease resistance.

Origin and Development

The concept of combining wheat and rye dates back to the late 19th century, but serious breeding efforts began in the early 20th century. The first successful triticale varieties emerged during the 1930s and 1940s. Since then, continuous improvement has led to modern cultivars suitable for various climates and soil conditions.

Types of Triticale

Triticale comes in two main types based on chromosome number:

  • Primary Triticale: Created by direct crossing of wheat and rye but often sterile or poor yielding.
  • Secondary Triticale: Developed by doubling chromosomes of primary hybrids or further crosses to stabilize fertility and improve agronomic traits.

Most commercial triticale cultivars are hexaploid or octoploid, meaning they have six or eight sets of chromosomes, which contributes to their vigor and adaptability.

Uses of Triticale

Triticale is a multipurpose crop used in several ways:

Animal Feed

One of the primary uses of triticale is as forage or grain for livestock feeding. Its high protein content makes it an excellent feed grain for cattle, pigs, and poultry. It is often grown as silage or hay.

Human Consumption

Though less common than wheat or rye, triticale can be milled into flour for baking bread, making cereals, or brewing beer. Its gluten quality differs from wheat; hence it requires specific recipes when used in baking.

Cover Crop and Soil Improvement

Triticale’s robust root system makes it an effective cover crop that reduces erosion, suppresses weeds, and improves soil structure. It also scavenges residual nitrogen efficiently, preventing nutrient leaching.

Biofuel Production

Given its high biomass yield, triticale is studied as a potential source for bioethanol production.

Advantages of Growing Triticale

Growing triticale presents several advantages:

  • Disease Resistance: More resistant to fungal diseases like rusts compared to wheat.
  • Stress Tolerance: Better tolerance to drought, acidity, and poor soils thanks to rye genetics.
  • Yield Stability: Provides consistent yields under varying environmental conditions.
  • Nutritional Quality: Higher lysine content than wheat enhances its value as feed.
  • Versatility: Can be used both for grain harvest and forage.

How to Grow Triticale

Growing triticale successfully involves understanding its cultural requirements from seed selection through harvest. Below is a step-by-step guide for cultivating this unique crop.

1. Selecting the Right Variety

Choose a variety suited to your region’s climate and intended use. Seed suppliers often provide details on maturity time, yield potential, disease resistance, and adaptation zones. For instance:

  • In cooler regions with shorter growing seasons, choose early-maturing varieties.
  • For forage purposes, select varieties with high biomass production.
  • If your goal is grain harvest for milling or feed, look for cultivars with plump kernels and good test weight.

Certified seed ensures higher germination rates and purity.

2. Soil Preparation

Although triticale tolerates poor soils better than wheat, optimal soil conditions promote best growth:

  • Soil Type: Well-drained loam or sandy loam soils are ideal; avoid heavy clay prone to waterlogging.
  • pH Level: A soil pH between 5.5 and 7.5 works well. Rye genetics allow some tolerance for acidic soils.
  • Soil Fertility: Conduct soil testing before planting; amend phosphorus (P) and potassium (K) as recommended.
  • Tillage: Conventional tillage or no-till systems can be used depending on equipment availability. Prepare a fine seedbed free of clods.

3. Planting Time

Planting date depends on whether you are growing spring or winter triticale:

  • Winter Triticale: Typically planted in early fall (late summer in warmer regions) so plants establish before winter dormancy.
  • Spring Triticale: Planted as soon as soil can be worked in early spring.

Planting too late reduces yield potential due to shortened growing periods.

4. Seeding Rate and Depth

  • Seeding Rate: Usually ranges from 100 to 150 pounds per acre (110–170 kg/ha), although rates vary based on seed size and planting method.
  • Row Spacing: Can be planted in rows 6 to 12 inches apart; narrow rows improve weed suppression.
  • Seeding Depth: Sow seeds about 1 to 1.5 inches (2.5–4 cm) deep to ensure good seed-to-soil contact without risking poor emergence.

Uniform planting depth helps ensure even germination.

5. Fertilization

Triticale responds well to nitrogen fertilizer but typically requires less than wheat due to better nutrient utilization:

  • Apply starter fertilizer containing phosphorus at planting if soil deficient.
  • Nitrogen should be split-applied: part at planting or shortly after emergence; remainder at tillering stage.
  • Avoid excessive nitrogen which can cause lodging (plants falling over).

Monitor tissue nutrient levels during growth if possible.

6. Irrigation

While triticale is more drought tolerant than wheat, it performs best with adequate moisture:

  • Provide supplemental irrigation during critical stages such as tillering, stem elongation, booting, flowering, and grain filling if rainfall is insufficient.
  • Avoid waterlogging which can reduce root function.

In dryland farming systems, selecting drought-hardy varieties aids success.

7. Weed Management

Because triticale seedlings emerge slower than some weeds:

  • Use pre-emergence herbicides if available for your area.
  • Implement crop rotation with broadleaf crops that allow herbicide options.
  • Mechanical cultivation between rows can help control weeds in small-scale plantings.

Good weed control ensures better nutrient availability for the crop.

8. Disease and Pest Control

Though relatively resistant to many diseases compared to wheat:

  • Monitor fields regularly for signs of rusts (leaf rust, stem rust), powdery mildew, fusarium head blight.
  • Use certified disease-free seed.
  • Practice crop rotation with non-cereal crops every few years.
  • For pests like aphids or armyworms that attack cereals generally, scout fields regularly; treat only if economic thresholds are reached.

Biological controls may be integrated for sustainable management.

9. Harvesting

Harvest timing depends on intended use:

  • For Grain: Harvest when kernels reach physiological maturity—usually when they have about 14% moisture content or less.
  • Kernels should be hard but not overly dry during combine harvesting.
  • Avoid delays that increase shattering losses.

  • For Forage: Cut when plants reach the boot stage or early heading for optimal protein content and digestibility if making silage or hay.

Use appropriate harvesting equipment calibrated for small grains to minimize losses.

10. Post-Harvest Handling

After harvesting grain:

  • Dry grain promptly if moisture is above safe storage levels (~12–14%) to prevent spoilage.
  • Store in clean bins with good aeration.
  • Clean seed before storage if saving seed for next season.

For forage crops:

  • Proper wilt time before baling preserves nutritional quality.

Challenges in Growing Triticale

Despite its many advantages, there are challenges associated with growing triticale:

  • Market Demand: Less established market compared to wheat may limit profitability in some regions.
  • Gluten Quality: Not all varieties produce gluten suitable for traditional bread-making without blending with wheat flour.
  • Seed Availability: Certified seed may be less widely available depending on location.

Farmers should assess local market opportunities before large-scale planting.

Conclusion

Triticale represents an impressive fusion of two staple cereal grains that offers enhanced stress tolerance, nutritional benefits, and versatility in use—from animal feed to human food production. Its adaptability makes it an excellent option for growers seeking alternatives to traditional cereals especially under challenging environmental conditions.

Successful cultivation requires choosing the right variety matched to your region’s climate and soil conditions along with proper agronomic practices such as timely planting, fertilization management, pest control, and appropriate harvesting methods. By following these guidelines carefully, farmers can take advantage of triticale’s promising attributes while contributing positively toward sustainable agriculture systems.

Whether you are a commercial farmer exploring new crops or a home gardener interested in experimenting with grains beyond the usual selections, triticale offers exciting possibilities worthy of consideration.