Ticks are often casually grouped with insects, but they are arachnids, related to mites and spiders. This matters because their anatomy and feeding strategy are specialized for prolonged attachment and blood-feeding. Their success comes from patience and efficiency: they wait in vegetation, sense host cues, attach, feed for extended periods, and can transmit pathogens in the process. For hunters who spend long hours in brushy edges, grass, leaf litter, and game trails, the conditions of a “good hunting spot” can also be the conditions of ideal tick habitat (Centers for Disease Control and Prevention [CDC], 2024a).
Ticks thrive where hunting happens
Many hunting methods place people in tick habitat by design. Still-hunting and stalking push hunters through brush and leaf litter. Ground blinds and turkey setups keep hunters low and still near field edges. Tracking and blood trailing move hunters off trails and into dense cover. Even routine chores—setting cameras, checking stands, dragging game, and field dressing—create long exposure windows. The CDC emphasizes that ticks are commonly encountered in wooded and brushy areas with high grass and leaf litter, and that avoiding contact often means staying in the center of trails—advice that directly conflicts with how many hunters move through productive terrain (CDC, 2024a).
Tick risk is also seasonal in a way that overlaps hunting calendars. Early archery seasons, upland bird seasons, and fall scouting often occur when ticks are active and when temperatures encourage lighter clothing. When combined with sweat, kneeling, crawling, and pushing through cover, the practical reality is that hunters can rack up repeated exposures across a single weekend.
The life cycle that multiplies exposure
Ticks do not feed once and disappear. They develop through life stages (egg, larva, nymph, adult), and many species require multiple blood meals to complete their life cycle. In practical terms, a hunter can encounter different stages in different microhabitats and seasons. Nymphs are especially problematic from a human-risk standpoint because they are small and can be harder to detect, while still capable of transmitting pathogens (CDC, 2025). This is one reason hunters may come home feeling fine, only to discover a tick later or develop symptoms after a delay.
Range expansion and longer seasons change the “old map”
Historically, hunters learned local tick patterns the way they learned local wind, thermals, and terrain: by experience. But experience becomes less reliable when conditions change. Multiple research efforts have documented that key tick species are expanding their ranges and shifting distribution patterns, with climate conditions playing a role in survival, seasonal activity, and establishment in new areas (Gardner et al., 2020; Eisen et al., 2023). For hunters, this is more than a scientific abstraction. It means places that “never used to be a tick problem” can become a tick problem, and the window of risk can widen.
USGS reporting on surveillance and research efforts highlights concern that climate change can lengthen seasons favorable for ticks, creating more time and opportunity for spread (U.S. Geological Survey, 2025). While the details differ by species and region, the practical takeaway for hunting culture is the same: the mental model of “tick season” is getting less predictable, and tick pressure can appear earlier, last longer, or show up in new habitat types.
What ticks do to wildlife that hunters pursue
Ticks affect hunting not only by biting hunters but by impacting the animals hunters pursue and the ecosystems those animals depend on. Heavy infestations can cause direct physiological stress—blood loss, irritation, and energy diversion—especially when infestations are intense and prolonged. Winter tick (Dermacentor albipictus), sometimes called the “moose tick,” provides a vivid example of how severe those impacts can be for large mammals. Federal and conservation sources note that winter ticks can infest large mammals heavily, with consequences that include hair loss, anemia, and in severe cases death (U.S. Geological Survey, 2025). The U.S. Fish and Wildlife Service describes extreme tick loads on moose and reports substantial calf mortality associated with winter ticks in some areas, alongside efforts to explore biological control methods (U.S. Fish and Wildlife Service, 2023).
For hunters, these wildlife impacts matter in at least four ways.
First, animal condition changes what hunters observe. Hair loss, lethargy, poor body condition, and unusual grooming behavior can all become field cues that something is wrong. In some regions, hunters may encounter animals carrying visible tick burdens or signs of chronic stress. This changes the emotional experience of the hunt and can create ethical questions about what a hunter is seeing and whether to report it.
Second, tick pressure can affect movement patterns. Animals under parasite stress may alter bedding, seek different microclimates, or shift activity periods. Even subtle changes can affect success, because hunting often depends on predicting routine patterns—feed, water, bedding, travel corridors. If tick-heavy edges or damp draws become less desirable to animals at certain times, hunters may see fewer sightings or altered travel routes.
Third, disease dynamics in wildlife can shape herd health. Some tick-borne pathogens affect domestic animals and wildlife and can influence population-level health metrics. While not every tick carries a pathogen, and not every bite transmits disease, the ecological role of ticks as vectors is well established across multiple U.S. tick-borne diseases (CDC, 2025). From the hunter’s perspective, the key point is not to diagnose a deer in the field, but to recognize that parasites and pathogens can be part of the population story—especially when agencies report regional spikes in tick abundance or tick-borne illness.
Fourth, in some regions, tick-driven wildlife impacts can feed back into management decisions. The U.S. Fish and Wildlife Service notes that winter ticks have been associated with very high calf mortality in Vermont in recent years, emphasizing the seriousness of the issue for wildlife managers (U.S. Fish and Wildlife Service, 2023). Whether the management response is surveillance, research, habitat strategies, or population adjustments, hunters are stakeholders in that conversation.
The human cost: the hunt follows you home
For hunters, the primary human risk is not the bite itself but the diseases ticks can transmit. The CDC’s tick-borne disease materials emphasize that hunting brings people in close contact with ticks and encourages specific precautions for hunting season, including treating clothing and gear with 0.5% permethrin before hunting (CDC, 2020). This recommendation is echoed in CDC general prevention guidance, which explains that permethrin-treated clothing and gear can remain protective through several washings and that purchasing pre-treated clothing is an option (CDC, 2024a). State public health agencies provide similar prevention guidance, including permethrin-treated clothing and repellent use (California Department of Public Health, 2024).
The deeper problem is that tick-borne illness can be disruptive even when it is treatable, and it can be severe when diagnosis is delayed or when the illness is less familiar. The CDC’s clinician-focused manual on tick-borne diseases underscores the breadth of tick-borne diseases in the United States and the importance of appropriate prevention and recognition (CDC, 2025). For a hunting household, that translates into a practical reality: an exposure in the field can become weeks of uncertainty, medical visits, missed work, or lingering symptoms. It can also change how people participate in hunting—shorter sits, avoidance of certain cover, reduced enthusiasm for warm-weather scouting, or a shift to more “open” hunting styles.
Ticks also change family dynamics around hunting. Many hunters introduce children to the outdoors early, and the “after-hunt routine” increasingly includes tick checks, showering, and clothing handling. Hunters who travel to other states may also need to update prevention habits because tick species and risk profiles vary regionally.
How tick pressure changes hunting strategy
In practical terms, tick pressure alters hunting behavior in several predictable ways.
Clothing and movement choices shift. Hunters increasingly favor long pants even in warmth, tuck pants into socks or boots, and use gaiters. They may avoid kneeling in leaf litter, sit on pads, or use elevated stands more consistently. The CDC hunting-season guidance specifically recommends tucking pants into socks or boots as a barrier strategy, reinforcing this field logic (CDC, 2020).
Scouting and camera work become higher-risk exposures. A hunter may spend more time setting stands than hunting them, and that time often occurs in late summer and early fall, when vegetation is thick. Hunters may begin to choose routes that prioritize low tick contact rather than purely “quiet” approaches.
Time in the field may compress. In heavy tick conditions, a hunter might limit how long they remain in a ground blind or may avoid certain thickets even if those areas historically held deer. This can influence success rates, especially for hunters whose strategy depends on deep-cover patterns.
Scent-control routines can conflict with repellents. Some hunters worry that repellents will spook game or contaminate gear. Yet public health guidance continues to emphasize prevention. The result is a culture shift: prevention becomes part of the gear system, not an optional add-on.
Meat, ethics, and responsibility during field dressing
Ticks also show up at the most intimate point of the hunt: handling the animal. Field dressing and dragging game can bring hunters into contact with ticks on fur and in surrounding vegetation. Hunters may discover ticks moving off the animal or crawling on clothing during processing. While the presence of ticks is not the same as meat contamination, it does raise practical sanitation issues and increases the need for disciplined handling: keep gear organized, avoid placing clothing or gloves in leaf litter, and do thorough checks afterward.
There is also a stewardship dimension. Hunters are often among the first to notice unusual burdens, hair loss, or abnormal body condition. When these signs appear across multiple animals or in unusual seasons, reporting observations to wildlife agencies can contribute to surveillance and management. In an era where tick ranges can shift and outbreaks can emerge, hunters are not merely recreational users of wild spaces; they can function as field observers who help inform wildlife health awareness.
Prevention as skill: the new marksmanship
If ticks are now part of the hunting landscape, prevention becomes part of hunting competence. This is not about fear; it is about disciplined routine. The CDC’s recommendations are practical and field-compatible: treat clothing and gear with 0.5% permethrin, avoid brushing against high grass and leaf litter when possible, and perform thorough tick checks after outdoor activity (CDC, 2020; CDC, 2024a). State guidance reinforces similar measures and emphasizes treated clothing and repellents as part of prevention (California Department of Public Health, 2024).
Seen through a hunter’s lens, these steps mirror other hunting disciplines. Hunters already accept that hearing protection, blaze requirements, safe backstops, and careful knife work are non-negotiable. Tick prevention fits that same category: part of the responsible craft.
What comes next: hunting in a tick-dense future
Research and surveillance efforts point to continued attention on tick distribution and abundance. Studies tracking the range dynamics of major tick species and the environmental factors influencing establishment show that tick risk is not static (Gardner et al., 2020; Eisen et al., 2023). Federal agencies are investing in surveillance innovations and exploring management tools, including biological control methods in specific contexts (U.S. Fish and Wildlife Service, 2023; U.S. Geological Survey, 2025). For hunters, the key question is whether hunting culture adapts quickly enough to keep participation strong and safe as tick pressure changes.
The likely future is not a world where hunters stop hunting, but one where hunting becomes more intentional about invisible risks. That may mean more education in hunter safety courses, more public-facing guidance timed to seasons, and stronger partnerships between hunting communities and wildlife health professionals.
Conclusion
Ticks have always been present in the landscape, but their impact on hunting is becoming more consequential. They influence where hunters go, how long they stay, what they wear, and how they process game. They affect wildlife health through direct parasitic stress and disease dynamics, altering animal condition and potentially shifting movement patterns. They also pose a real human health risk that can outlast a season. In response, hunting is slowly adding a new discipline to the traditional toolkit: prevention as a practiced skill. The hunt still demands patience, restraint, and competence. Increasingly, it also demands that hunters respect what they cannot see.
References
California Department of Public Health. (2024, July 31). Tick-borne disease prevention. California Department of Public Health.
Centers for Disease Control and Prevention. (2020). It’s open season on ticks: Protect yourself from tickborne disease this hunting season. U.S. Department of Health and Human Services.
Centers for Disease Control and Prevention. (2024, August 28). Preventing tick bites. U.S. Department of Health and Human Services.
Centers for Disease Control and Prevention. (2025). Tickborne diseases of the United States: A reference manual for healthcare providers. U.S. Department of Health and Human Services.
Eisen, R. J., Kugeler, K. J., Eisen, L., Beard, C. B., & Paddock, C. D. (2023). Evaluation of the association between climate warming and increased incidence of tick-borne diseases in the United States. Parasites & Vectors, 16, Article 58.
Gardner, A. M., Hamer, S. A., & Hamer, G. L. (2020). Landscape features predict the current and forecast the future distribution of Ixodes scapularis and associated disease risk. Proceedings of the Royal Society B: Biological Sciences, 287(1935), 20202278.
U.S. Fish and Wildlife Service. (2023, February 8). Service supports winter tick research using fungi to decrease tick populations. U.S. Department of the Interior.
U.S. Geological Survey. (2025, May 6). Scent dogs join tick surveillance efforts. U.S. Department of the Interior.

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