SUNY ESF White-tailed Deer

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Range and Habitat

The range is from southern Canada to Panama except for parts of the western and southwestern U.S. The white-tailed deer was uncommon in the Adirondacks prior to the mid 19th century. Today, this species resides in all terrestrial communities throughout the Adirondack Park, and is generally more numerous in the lowlands of the Park’s periphery than in the central Adirondacks, especially the higher elevations (spruce-fir forests, above 2500 ft). The historical change in relative abundance and the current density reflect the availability of preferred habitat: The openings and edges of deciduous and mixed forests, the early successional stages of these forests, brushy fields, and wooded farmlands, together with mature stands of conifers that provide winter shelter. Disturbance (logging, the fires that followed, and finally, the hurricane of 1950) transformed the pristine Adirondack forests, which were less suited for deer, into more favorable habitat.

The primary change increasing the Adirondack deer herd was the conversion of large tracts of mature forest with its poorly developed understory into area of more diverse, low-growing, young vegetation which increased the food supply. Timber harvest on private lands continues to foster the Adirondack deer herd; the maturation of the public forest discourages it.

The white-tailed deer is, economically the most important wild mammal in the Adirondack Park, because of the approximately 150,000 hunters who participate in the annual season (average yearly harvest, 10,286). Nor should the importance of the species be overlooked in contributing to the wilderness experience of visiting campers, nature photographers, and hikers. For many visitors, the view of a white-tailed in the Adirondacks is the highlight of the their experience in the Park, overshadowing previous exposure to the same animal in the more mundane contexts of rural pastures and corn fields. Residents, too, are appreciative of the presence of white-tailed deer as part of their ordinary routines.

Food and Feeding Behavior

The white-tailed deer, an adaptable but selective herbivore, grazes and browses the most nutritious plants available. Feeding specialization include a four-part stomach containing bacteria and protozoans that aid in digesting cellulose, and a tough cartilaginous pad in place of the upper incisors. The six lower incisors and two canines work against the pad to crush and strip woody stems and twigs from their moorings. This feeding behavior causes ragged or frayed edges on the remaining portions of deer-browsed woody plants. Repeated browsing may create witches’-broom effect on saplings and shrubs.

White-tailed deer may stand on their hind limbs to reach desirable plants. This manner of feeding creates a noticeable browse line in white cedar swamps and where white cedar fringes lakes and rivers; almost all foliage and twigs are removed to a height of 6 ft. The effects of deer browsing are not limited to influencing the physical appearance of woody plants. At moderate to high densities, selective feeding by white-tailed deer may alter the species composition of regenerating forests by eliminating some trees and shrubs such a yellow birch, sugar maple, mountain ash and scarlet alder. Thus, this herbivore’s impact on the Adirondack forests may be long-lasting.

Terrestrial and aquatic herbaceous plants, fungi, and fruits form much of the summer diet. Acorns and beechnuts (until buried by snow) and woody browse are important autumn and early winter foods, as well as dried leaves and grasses. After snowfall, the winter diet consists of woody browse – the twigs and stems of seedlings, saplings and shrubs. White tailed deer prefer white cedar, birches, aspens, American yew, hemlock, maples, ash, white pine, mountain ash, scarlet elder, sumac, witchhobble, and high bush cranberry. Beech, balsam fir, spruces, and larch are either unpalatable, indigestible, or both. The spring diet includes the buds, twigs, and developing foliage of woody and herbaceous plants.

See also  .22-250 Remington vs .243 Winchester Ammo Comparison - Ballistics Info & Chart Caliber Ballistics Comparison 07 Dec, 2018 Posted By: Foundry Outdoors The following ammunition cartridge ballistics information and chart can be used to approximately compare .22-250 Remington vs .243 Winchester ammo rounds. Please note, the following information reflects the estimated average ballistics for each caliber and does not pertain to a particular manufacturer, bullet weight, or jacketing type. As such, the following is for comparative information purposes only and should not be used to make precise predictions of the trajectory, performance, or true ballistics of any particular .22-250 Remington or .243 Winchester rounds for hunting, target shooting, plinking, or any other usage. The decision for which round is better for a given application should be made with complete information, and this article simply serves as a comparative guide, not the final say. For more detailed ballistics information please refer to the exact round in question or contact the manufacturer for the pertinent information. True .22-250 Remington and .243 Winchester ballistics information can vary widely from the displayed information, and it is important to understand that the particular characteristics of a given round can make a substantive difference in its true performance. Caliber Type Velocity (fps) Energy (ft-lb) .22-250 Remington Rifle 3790 1620 .243 Winchester Rifle 3180 1950 [Click Here to Shop .22-250 Remington Ammo] [Click Here to Shop .243 Winchester Ammo] VelocityAs illustrated in the chart, .22-250 Remington rounds - on average - achieve a velocity of about 3790 feet per second (fps) while .243 Winchester rounds travel at a velocity of 3180 fps. To put this into perspective, a Boeing 737 commercial airliner travels at a cruising speed of 600 mph, or 880 fps. That is to say, .22-250 Remington bullets travel 4.3 times the speed of a 737 airplane at cruising speed, while .243 Winchester bullets travel 3.6 times that same speed.Various calibersEnergyFurthermore, the muzzle energy of a .22-250 Remington round averages out to 1620 ft-lb, while a .243 Winchester round averages out to about 1950 ft-lb. One way to think about this is as such: a foot-pound is a unit of energy equal to the amount of energy required to raise a weight of one pound a distance of one foot. So a .22-250 Remington round exits the barrel with kinetic energy equal to the energy required for linear vertical displacement of 1620 pounds through a one foot distance, while a .243 Winchester round exiting the barrel has energy equal to the amount required to displace 1950 pounds over the same one foot distance. As a rule of thumb, when it comes to hunting, muzzle energy is what many hunters look at when deciding on what caliber of firearm / ammunition to select. Generally speaking, the higher the muzzle energy, the higher the stopping power. Again, the above is for comparative information purposes only, and you should consult the exact ballistics for the particular .22-250 Remington or .243 Winchester cartridge you're looking at purchasing. [Buy .22-250 Remington Ammo] [Buy .243 Winchester Ammo] Please click the above links to take a look at all of the .22-250 Remington and .243 Winchester ammo we have in stock and ready to ship, and let us know any parting thoughts in the comment section below.Foundry Outdoors is your trusted home for buying archery, camping, fishing, hunting, shooting sports, and outdoor gear online.We offer cheap ammo and bulk ammo deals on the most popular ammo calibers. We have a variety of deals on Rifle Ammo, Handgun Ammo, Shotgun Ammo & Rimfire Ammo, as well as ammo for target practice, plinking, hunting, or shooting competitions. Our website lists special deals on 9mm Ammo, 10mm Ammo, 45-70 Ammo, 6.5 Creedmoor ammo, 300 Blackout Ammo, 10mm Ammo, 5.56 Ammo, Underwood Ammo, Buffalo Bore Ammo and more special deals on bulk ammo.We offer a 100% Authenticity Guarantee on all products sold on our website. Please email us if you have questions about any of our product listings. 6 Comments Justin - May 08, 2020You guys are full of crap. This is misleading Bologna, you know the 45 -70 grain .243 Win destroy the 22 250 in velocity and distance. The range of the 243 also defiles the 22-250 . I wish I could sue you for misleading crap like this. Tyson - May 09, 2020@Justin – i think they are right, what is your source? everything I’m seeing agrees with the above info 22-250 is faster, 243 has more energy. compare PP22250 vs PP2432 for examplePP22250 – 1655 ft lbs, 3680 fps PP243 – 1945 ft lbs, 2960 fps Paul Nelson - Dec 06, 2021Tyson is correct. I shoot a Tikka T3 22-250. Although I load my own for long distance shooting, I trade kinetic energy, stopping power for muzzle velocity. I would not shoot a large game animal at the distance I shoot, although my round is very fast and accurate beyond belief, at distance beyond 500 yards my 85 gr.Nosler round lacks the punch to pierce beyond the shoulder blade. The rounds small weight and lose of it’s kenetic energy just doesn’t hold together upon bone contact. Soft targets see the perform at it best. Paul Nelson - Dec 06, 2021Justin, meant no disrespect. For anyone who takes thier shooting very personal, I have the ultimate book for you. It’s called, Game loads and practical ballistics for the American hunter. Covers all basic civilian calibers from .17 varsity to .375 H&H. Cover drop at 100 yard intervals, temperature effect on performance, which powders and primers are best for your caliber and more. Took the author 25 yrs to compile the data. Excellent book for any shooters library. The author is Bob Hagel, writer for many outdoors and firearm publications. Also gives you creditable facts when challenged by another shooter. Bradley - Nov 16, 2022@Paul Nelson What’s the barrel twist rate in your Tikka T3 22-250? I’ve been checking some ballistic value data and the info would suggest that a long bullet like the 85 gr Nosler you use would require 1:9 or faster. But the experiment always outweighs the theory! That’s why I’m looking at a Browning X-Bolt with 22 in barrel and 1:9 twist rate. It’s possibly on the high side for smaller and lighter projectiles but perfect for the longer heavier ones. Greg - May 23, 2024I agree with the first guy to comment…while if what you shoot is what you can find at the store, yeah, the 22-250 is way faster….If you handload….well, my 243 will be right with the 250 in terms of velocity with a bigger heavier bullet. Want a good comparison, 22-250 with a 40 gr. Around 4000-4100, 243 with a 55-58gr at around 3900-4000. 22-250 with a 55gr at around 3600-3700 vs my go to varmint load in my 243 with a 70 gr at a little under 3600. Yeah, the 243 wins Leave a commentComments have to be approved before showing up Your Name * Your Email * Your Comment * Post Comment

An adult white-tailed deer requires approximately 5-7 lb of food per day. Energy demands vary seasonally, and are greatest for pregnant and lactating females, for males in the autumn rut, and for all individuals during severe winter weather.

However, metabolism, under control for photo period, declines in winter but increases from late winter to summer. Both browsing and fat reserves provide winter energy needs. Starvation, although probably always causing some mortality even during moderate Adirondack winters, may cause massive mortality when deep snow cover exceeds 100 days (as was the case in the winters of 1969-71).

Activity and Movement

White-tailed deer are primarily crepuscular (active at twilight) in the spring, but are active during the hours of daylight as well in the summer, including midday. By late autumn at the onset of the rut and throughout this period, bouts of activity occur equally at all times during a 24-hour period. Winter activity, mainly foraging, is more likely in late afternoon. Storms at any time of year may reduce activity, with slightly more movement taking place before and after inclement weather. General levels of activity increase with day length in late winter and spring, decline in summer and then peak again in late autumn. Deer stand quietly or bed down in cover when inactive.

Long periods of snow cover overlap the onset of increasing day length and metabolism. The depletion of fat reserves and the lack of nutritious browse (a persistent threat because of the repeated use of the same winter ranges) cause starvation; however, deer may lose 25-30% of their body weight and survive. Fawns from the pervious year are the most vulnerable to starvation because they have the least time to accumulate fat before winter. Severe winters affect not only the survival of white-tailed deer but also the productivity of females. Low energy levels may decrease the next crop of fawns.

White-tailed deer vacated their summer ranges when the snow depth reaches 15 inches, usually in late November or December, and travel up to 12 miles to reach traditional winter ranges (deer yards) that offer continuous coniferous cover overhead. Movement to the winter range is rapid, often less than 24 hours. Benefits of this habitat are not well-known, but may include reduced wind chill, easier movement (the snow sifts through the foliage and has a different physical character, or is shallower because the foliage retains part of the accumulation). Travel within the winter range is along well-defined trails, which is a key advantage for deer living in groups in winter; an individual saves energy by not having to continually create a new trail. The detection and escape from predators may be another advantage.

The return to the summer range begins when the snow depth recedes below 15 inches, and is a journey that takes place over the course of 1-2 weeks, often along slopes that face the south. Typically, the return begins in March or April, but it may begin with a sudden thaw in midwinter. If additional heavy snow falls, deer quickly move back onto the winter range. Walking, trotting, bounding, and running are the normal gaits of a white-tailed deer, which is capable of running at speeds up to 35 mph for several miles and leaping obstacles 8.5 ft in height. This species swims well, and frequently enters water in summer to forage.

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Reproduction

The breeding season, or rut, is from late autumn to early winter (peak November 10). The gestation period is approximately 202 days. Females bred as yearlings bear one fawn. Older females usually bear twins throughout their lifetime, which in the Adirondacks, may span 10-15 years. Most fawns are born in late May or early June. At birth fawns weigh approximately 3-6 lb. Newborn fawns have a full coat of reddish brown fur that is spotted with white. Their eyes are open, and although somewhat unsteady on their legs, fawns nurse from a standing position when less than 24 hours of age. Fawns have little scent or odor for their first 7-10 days, and during this time, they tend to move little, except to nurse, and react to disturbance such as approaching predators by remaining motionless while flattened against the ground. Fawns begin to accompany the female when 3-4 weeks old, at which time they are already beginning to consumer some vegetation. Weaning is variable, usually by 4 months of age, but occasionally not until 6 months or longer. The winter grayish brown coat replaces the spotted pattern in September-Octover. Sexual maturity is at 1.5 years for both sexes, although many males will not actually breed until older. Potential longevity is 23-24 years; white-tailed deer 9-10 years old in the central Adirondacks are relatively common.

Communication

Chemicals from pedal (between the toes), preorbital (corners of the eyes), tarsal (inside of hind legs at the ankles) and metatarsal (outside of the hind legs between ankles and hooves) glands provide clues about the sex, age, identity and motivation of a deer. Deer deposit glandular substances in various ways, for example, when the hooves touch the ground, by pressing the preorbital glands on twigs and branches, and by urinating on the hind legs while rubbing the legs together (the stream of urine passing through the long hairs of the tarsal glands and carrying their products to the ground). An extensive repertoire of visual displays includes motor patterns and postures such as lowering the head with ears in different positions, standing on the hind limbs while lashing out or pawing with the front ones, and presenting a lateral view of the body, all of which are given in hostile encounters. Males in rut rub their antlers on small sapling or trees (deer rubs), use their hooves to expose soil in an area about 3 ft in diameter (scrapes) in which they rub-urinate to mark territories and then challenge intruding males. Contestants may shove or push with their antlers, the weaker male leaving. The upraised tail or flag is an alarm signal and may be preceded by the footstomp. Adults snort-wheeze, bawl, and moan in different contexts. Fawns give loud bleats or baas to summon their mothers, and whine while nursing.

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Social System

White-tailed deer exhibit an elaborate social pattern. During the warm months of the year, the basic social unit consists of related females, their fawns and yearlings, and adult males all of which have contiguous or overlapping home ranges. In autumn, yearling males disperse up to 25 miles (average 5 miles) to establish permanent ranges with a different social unit.

The average size of the summer home range is 536 acres for both sexes, but during the rut, expands to 853 acres for males. White-tailed deer are polygamous. Each adult male competes with other males for access to females, and each male may exclude neighboring males from parts of its home range in the breeding season. All members of a social unit congregate at the same traditional winter range or yard where the home range size averages 338 acres per individual. Fawns accompany their mother to the winter ranges. Frequently, members of several social units use the same wintering area. Tradition largely determines the use of a particular yard. Thus, social units return to the same yard from one year to the next, sometimes passing by coniferous cover that appears to offer similar winter habitat. Social hierarchies are evident when deer congregate in herds, with rank determined by sex, age, and size. The largest males are dominant, followed in rank by adult females. Yearlings and fawns are subordinate to all others. Hierarchies determine access to food, especially when browse is limited. Densities of white-tailed deer for winter yards may approach or exceed 100-125 individuals per square mile, but are 4-25 deer per square mile for summer.

Additional References

Behrend, D.F. 1966. Behavior of white-tailed deer in an Adirondack forest. Ph.D. Dissertation, State University of New York, College of Environmental Science and Forestry, Syracuse, 206 pp.

Cheatum, E. L. and G.H. Morton. 1946. Breeding season of white-tailed deer in New York. Journal of Wildlife Management, 10:249-263.

Halls, L.K., ed. 1984. White-tailed deer ecology and management. Stackpole Books Publishing Co., Harrisburg, PA. 870pp.

Mattfeld, G.F. 1974. The energetics of winter foraging by white-tailed deer: A perspective on winter concentration. Ph.D. Dissertation, State University of New York, College of Environmental Science and Forestry, Syracuse, 306 pp.

Mautz, W.W. 1978. Sledding on a brushy hillside: the fat cycle in deer. Wildlife Society Bulletin, 6(2):88-90.

Richardson, L.W., H.A. Jacobson, R.J. Muncy and C.J. Perkins. 1983. Acoustics of white-tailed deer (Odocoileus virginianus). Journal of Mammalogy, 64:245-252.

Sage, R.W., Jr., W.C. Tierson, G.F. Mattfeld and D.F. Behrend. 1983. White-tailed deer visibility and behavior along forest roads. Journal of Wildlife Management, 47(4):940-953.

Severinghaus, C.W. and C.P. Brown. 1956. History of deer in New York. New York Fish and Game Journal, 3:129-167.

Tierson, W.C., G.F. Mattfeld, R.W. Sage, Jr. and D.F. Behrend. 1985. Seasonal movements and home ranges of white-tailed deer in the Adirondacks. Journal of Wildlife Management, 49(3):760-769.

Underwood, H.B. 1986. Population dynamics of a central Adirondack deer herd: responses to intensive population and forest management. M.S. Thesis, State University of New York, College of Environmental Science and Forestry, Syracuse, 196 pp.

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Ethan Smith is a seasoned marine veteran, professional blogger, witty and edgy writer, and an avid hunter. He spent a great deal of his childhood years around the Apache-Sitgreaves National Forest in Arizona. Watching active hunters practise their craft initiated him into the world of hunting and rubrics of outdoor life. He also honed his writing skills by sharing his outdoor experiences with fellow schoolmates through their high school’s magazine. Further along the way, the US Marine Corps got wind of his excellent combination of skills and sought to put them into good use by employing him as a combat correspondent. He now shares his income from this prestigious job with his wife and one kid. Read more >>