Cooperative Extension Fact Sheet FS1186 | December 2012
Use of tall fescue (Festuca arundinacea Schreb.) as a forage and conservation grass increased in the United States with the release of 'Alta' and 'Kentucky 31' in 1940. It has long been used for control of soil erosion along right-of-ways such as highway roadsides. By the 1960s, 'Kentucky 31' became more widely recognized as a useful turfgrass in the transition zone (boundary between the temperate and subtropical climates) of the United States due to its good heat tolerance and adaptation to a wide range of soil (pH, fertility and moisture) and light conditions.
'Rebel', released in 1979, was the first turf-type tall fescue variety with a reduced vertical growth habit, finer leaf texture and darker green color compared to Kentucky 31 and Alta. Continued turfgrass breeding efforts have provided retail consumers and turfgrass professionals with many choices of improved, turf-type varieties, which has increased the use of tall fescue.
Turf-type tall fescue is a good choice for school grounds, sports fields, and parks in New Jersey and other regions where the mowing height is 2-inches or taller and nitrogen fertilizer and irrigation inputs are minimal. Improved, lower-growing varieties of tall fescue reduce the need for frequent mowing as well as improve turfgrass quality and longevity. Lower irrigation and fertilization requirements of tall fescue compared to Kentucky bluegrass (Poa pratensis L.) and perennial ryegrass (Lolium perenne L.) make it possible to maintain moderate to high quality sports fields utilizing fewer inputs. Meeting the challenges of lower input turf management strategies is important for municipal governments and school districts operating with limited budgets.
Properly established tall fescue exhibits a deep root system, helping it tolerate drought stress and white grub feeding. Additionally, most improved varieties of tall fescue are endophyte-enhanced, which improves resistance to surface feeding insects; however, endophyte-enhanced tall fescue varieties should not be established where livestock grazing is anticipated.
Selection of tall fescue varieties for sports fields should be based on the characteristics of traffic tolerance, turfgrass quality, and susceptibility to brown patch disease (caused by Rhizoctonia solani). Traffic tolerant varieties are more persistent under the combined stresses of wear and compaction, which are very common on sports turfs. Research conducted at Rutgers University on the 2006 National Turfgrass Evaluation Program (NTEP) Tall Fescue Test has identified tall fescue varieties with better traffic tolerance (Table 1).
Turfgrass quality is a visual evaluation of a turf's color, density, uniformity, texture (fineness of leaf blades), and freedom from pest and environmental stress damage; these data are available for multiple NTEP test locations. Varieties and experimental selections listed in Table 1 and marked with an 'X' are those entries in the 2006 NTEP Tall fescue Trial that had an acceptable turfgrass quality (rating of 6 or greater).
Brown patch disease is capable of producing large (1 to 2-ft diameter) circular patches of damaged turf during periods of warm, humid weather and is the most problematic disease affecting tall fescue. Varieties and experimental selections are routinely evaluated for susceptibility to brown patch disease in NTEP trials. Entries marked with an 'X' in Table 1 are tall fescue varieties and experimental selections exhibiting the least susceptibility to brown patch disease in 2009 (4 locations) and 2010 (3 locations).
Purchasing certified seed of tall fescue is strongly suggested. Certified seed is grown in fields inspected by a state-certifying agency for genetic purity and also meets standards for germination (viability) and freedom from weeds and other crop seeds.
Identifying the variety of seed in the container allows the buyer to select improved varieties having the genetic traits that are most important for high quality sports field playing surfaces. Conversely, use of poorly adapted varieties can result in extensive turf failure, which increases the likelihood of field downtime and costly repairs. Seed labels that do not identify varieties or report varieties as variety-not-stated (VNS) present a risk to the buyer because the turf quality of the seed is unknown.
Tall fescue grows well in moderately well-drained and fertile soil of slight acidity (optimum pH of 6.5 to 6.7). Tall fescue is an excellent choice for low to medium maintenance sports fields where irrigation is either limited or not available. Drought tolerance of tall fescue depends on the turf being well-established, especially after the development of a deep extensive root system, which may take a full growing season. Good rooting will be achieved by proper soil preparation before seeding or sodding and adequate nitrogen fertilization and irrigation during the establishment year. Construction practices and other efforts that limit compaction of the soil will ensure drought tolerance of tall fescue.
Tall fescue lacks abundant rhizomes, which are necessary for aggressive lateral spreading; thus, Kentucky bluegrass is commonly mixed with tall fescue to increase the ability of the turf to spread laterally. The rhizomes of Kentucky bluegrass provide sod strength and facilitate a suitable harvest. Sod of tall fescue and Kentucky bluegrass is readily available in New Jersey. Tall fescue and Kentucky bluegrass seed mixtures should consist of two or more traffic tolerant turf type tall fescue varieties in combination with one or more Kentucky bluegrass varieties with the following standards (percentage by weight):
80-95% Tall fescue
5-20% Kentucky bluegrass
Because the seed size of Kentucky bluegrass is much smaller than tall fescue, mixtures that contain 90% tall fescue and 10% Kentucky bluegrass (by weight) have approximately an equal number of tall fescue and Kentucky bluegrass seeds. Seed mixtures that are 80% tall fescue and 20% Kentucky bluegrass (by weight) are approximately 70% Kentucky bluegrass and 30% tall fescue (by seed count).
Over time, the composition of tall fescue and Kentucky bluegrass turf mixtures can gradually shift to a population of primarily Kentucky bluegrass. This is more likely under lower mowing heights, greater nitrogen fertility, more frequent irrigation, and other management practices that favor Kentucky bluegrass. Choosing a seed mixture that minimizes the quantity of Kentucky bluegrass and maintaining the turf to favor tall fescue development should delay this transition.
Perennial ryegrass is often mixed with tall fescue to hasten seedling emergence and turf establishment and provide a darker green turf. Unfortunately, the aggressiveness of perennial ryegrass can result in turf stands consisting of 90% or greater perennial ryegrass when as a little as 5% perennial ryegrass (by weight) was included in the seed mixture. Many improved tall fescue varieties have a darker green color; hence, there is less of a need to include perennial ryegrass for color enhancement. Perennial ryegrass can be excluded from a seed mixture when tall fescue is seeded before September 15 and there is adequate time to establish the turf. As a general rule, tall fescue turf will reach a mature condition once it grows through two "cool seasons"; that is, a fall and spring or spring and fall periods.
Tall fescue seedings are typically more successful when seeded at 8 to 10 pounds of seed per 1,000 square feet (350 to 440 pounds per acre) of turf area. A tall fescue and Kentucky bluegrass mixture should also be seeded at 8 to 10 pounds of seed per 1000 square feet (350 to 440 pounds per acre). Seeding tall fescue at lower rates can be successful under ideal conditions; however, lower seeding rates have greater risk of forming a clumpy, sparse turf cover, especially when soil preparation is less than ideal.
Emergence of tall fescue should occur within 5 to 7 days when seeded into warm moist soil. The rate of tillering (primary lateral shoots arising from the crown) and establishment of tall fescue is slower than perennial ryegrass but more rapid than Kentucky bluegrass. Tall fescue has a bunch-type growth habit (tillers from a central crown) although short rhizomes are observed on some plants. Extensive tillering and rhizome development are spreading traits that turfgrass breeders are continuing to work on to improve tall fescue varieties.
A well-established, mature tall fescue turf will exhibit good to excellent traffic tolerance. Ideally, intense foot traffic (use) should be withheld for one year on newly seeded tall fescue sports fields to ensure the establishment and development of a traffic tolerant turfgrass stand; however, in some cases, earlier field use may be achievable. Additional details on establishment of sports field surfaces can be found in the Rutgers Cooperative Research and Extension Bulletin E300 Turfgrass Establishment Procedures for Sports Fields.
Recovery from traffic damage occurs from re-growth of meristems located on the crowns of plants, which are approximately one-third (⅓) of an inch below the soil surface. Recovery is not possible if crowns are destroyed; re-seeding or sodding will be necessary to repair this type of damage.
Mowing heights as low as 1.5 to 2 inches may be used when turf-type tall fescue is maintained with moderate fertilization and irrigation is available. However, tall fescue turfs are more prone to weed invasion at mowing heights less than 2 inches.
Annual nitrogen fertilization rates depend on the soil organic matter content, desired turf quality, need for turfgrass recovery after field use/play, and the age of the turf. Recommended annual nitrogen rates range from 1 to 4 pounds of nitrogen per 1,000 square feet of turf area. Fertilization of turfgrass in New Jersey must be performed in accordance with the 2011 New Jersey Fertilizer Law (New Jersey Act, P.L. 2010, c. 112 (C.58:10A-64). Four pounds of nitrogen per 1000 square feet per year may be appropriate for establishing turf or promoting turfgrass recovery on intensively trafficked turf sports fields. Older turfgrass stands where soil organic matter content is adequate will require less nitrogen fertilization. The timing of N fertilization for tall fescue fields should be matched with usage. For example, more nitrogen fertilizer should be applied in late summer and early fall if this is also the season of primary use. Conversely, spring applications of N fertilizer should be emphasized when the field use is greatest during the spring. For more information on fertilization of sports fields see Rutgers Cooperative Extension publication FS105 Maintaining Athletic Fields.
Irrigation of tall fescue sports fields is necessary under severe drought conditions to maintain healthy vigorous growth during play. However, a healthy, well-established tall fescue turf needs less frequent irrigation and is capable of surviving drought for many weeks by going dormant. Tall fescue will survive drought conditions best when traffic is withheld while the field is dormant. Insect or disease activity will reduce the survival of drought stressed and dormant turf. Tall fescue turf grown on shallow or unhealthy soil will have a limited root system and, therefore, less persistence under severe drought stress.
Mention of varieties does not equate with endorsement.
|Spring||Summer||Fall||Turf Quality||Brown Patch|
|3rd Millennium SRP||X||X||X||X||X|
|PENN RK 4||X||X||X||X||X||X||X||X|
1 Entries marked with an 'X' indicate best tolerance after traffic in Spring 2009 and/or 2011; Summer 2008 and/or 2010; Fall 2007 and/or 2009. Trial was conducted in North Brunswick, NJ. Data available at turf.rutgers.edu/research/reports.
2Entries marked with an 'X' exhibited average turfgrass quality >= 6.0 across sixteen test locations in 2010 managed under 'Schedule A' maintenance (i.e., 2.0-3.0-inch mowing height; medium irrigation and fertilization inputs). Data available at ntep.org/data/tf06/tf06_11-8/tf0611t01.txt.
3 Entries marked with an 'X' exhibited average turfgrass quality >= 6.0 across eleven test locations in 2010 managed under 'Schedule B' maintenance (i.e. 2.5-3.5-inch mowing height; minimal irrigation and fertilization inputs). Data available at ntep.org/data/tf06/tf06_11-8/tf0611t02.txt.
4 Entries marked with an 'X' had the least average brown patch (top statistical grouping) in 2009 across four locations (West Lafayette, IN; Raleigh, NC; University Park, PA; and Virginia Beach, VA). Data available at ntep.org/data/tf06/tf06_10-8/tf0610t26.txt.
5 Entries marked with an 'X' had the least average brown patch (top statistical grouping) in 2010 across three locations (West Lafayette, IN; Adelphia, NJ; and Virginia Beach, VA). Data available at ntep.org/data/tf06/tf06_11-8/tf0611t25.txt.
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