How Do Animals Survive in Hot Climates?

Animals survive in hot climates through a combination of physiological, anatomical, behavioral, and genetic adaptations that manage heat load, conserve water, and protect cellular function. These strategies operate across habitats ranging from tropical savannas and arid deserts to hot springs and intertidal zones. For students, researchers, and life-science professionals, understanding these mechanisms requires examining both the evolutionary patterns and the practical limits of heat tolerance, particularly as climate change intensifies thermal stress worldwide.

At a Glance: Heat Adaptation Strategies Across Habitats

The Thermal Challenge: Why Heat Is Dangerous

Heat stress occurs when an animal cannot balance internal heat production with heat dissipation to the environment. The thermal comfort region for most animals lies between 4°C and 25°C, and when environmental temperature exceeds 25°C, animals begin to experience heat stress conditions [21]. Over 50% of the global cattle population is located in the tropics, and heat causes severe economic loss in approximately 60% of dairy farms worldwide [21].

The danger of heat operates at multiple levels. At the whole-animal level, elevated body temperature impairs organ function and reduces performance. At the cellular level, heat disrupts protein folding, damages membranes, and increases oxidative stress. Heat stress disturbs the steady-state concentrations of free radicals, resulting in both cellular and mitochondrial oxidative damage [21]. Most physiological and biochemical variations in animals occur to protect essential cell functions against stressful conditions and to ensure fast recovery from moderate heat damage [22].

Temperature tolerance varies widely across species and plays a crucial role in shaping physiological and evolutionary adaptations [4]. Understanding these differences helps explain why some species thrive in hot environments while others rapidly decline.

Physiological Adaptations: Managing Internal Heat

Evaporative Cooling Systems

Evaporative heat dissipation is the primary active cooling mechanism in endotherms. Small mammals and birds rely heavily on pathways of evaporative heat dissipation to defend body temperature during heat exposure [8]. These pathways include sweating, panting, and saliva spreading, each with distinct water costs.

Panting is a rapid, shallow breathing pattern that maximizes evaporative water loss from the respiratory tract. In cattle, respiration rate shows the greatest sensitivity to heat stress among physiological indicators. In a study of Sahiwal heifers, respiration rate surged by 18.7% at a temperature-humidity index (THI) of 76 compared to thermoneutral conditions [12]. This makes respiration rate a prime stress indicator for farmers monitoring herd welfare [12].

A novel thermoregulatory mechanism called vocal panting has been documented in a desert-adapted bird species [28]. This adaptation enhances heat tolerance by combining respiratory evaporative cooling with vocalization, potentially allowing the bird to maintain communication while dissipating heat [28].

Circulatory Adjustments

Blood flow redistribution is a critical heat management strategy. Animals shunt warm blood to peripheral tissues, particularly the skin and extremities, where heat can be lost to the environment. The African elephant exemplifies this with its large ears, which contain extensive networks of superficial blood vessels. Ear flapping increases airflow across these vessels, enhancing convective heat loss.

In dairy cattle, body surface temperatures measured by infrared thermography reveal breed-specific differences in circulatory heat dissipation. Crossbred Karan Fries cows showed significantly higher body surface temperatures across all measured regions compared to indigenous Sahiwal cows, indicating less efficient heat dissipation [13]. Eye temperature showed a strong correlation with the inflammatory cytokine TNF-alpha and cortisol, suggesting that surface temperature measurements can serve as non-invasive stress indicators [13].

Hormonal and Immune Responses

Heat stress triggers coordinated endocrine and immune responses. In Sahiwal heifers, cortisol followed a biphasic pattern, dropping at moderate THI before rebounding 1.8-fold at THI 76 [12]. Cytokine profiles also shift under heat stress, with anti-inflammatory IL-10 surging by 39.6% at THI 76 [12].

In lactating dairy cows, hot-humid conditions produced higher TNF-alpha, IL-6, IL-1-beta, and cortisol levels compared to hot-dry conditions. TNF-alpha levels increased by 31.76% in Sahiwal and 36.47% in Karan Fries cows from hot-dry to hot-humid seasons, while cortisol rose by 44.41% and 47.42% respectively [13]. Thyroid hormones declined significantly under hot-humid conditions, with a greater reduction in crossbred cows, indicating suppressed metabolic rate as a heat conservation strategy [13].

Both cold and heat disrupt the Th1/Th2 immune balance, underscoring the need for season-specific microclimate management in tropical dairy systems [12].

Anatomical Adaptations: Built for Heat

Body Size and Surface Area

Body size relative to surface area influences heat exchange. Larger animals have lower surface-area-to-volume ratios, which reduces heat gain from the environment but also impairs heat dissipation. This creates a challenge for large tropical mammals like elephants and cattle, which must rely on specialized structures and behaviors to compensate.

Specialized Heat Dissipation Structures

The elephant ear is a classic example of an anatomical adaptation for heat loss. The large, thin ears provide extensive surface area for blood cooling. When the animal flaps its ears, it increases airflow and enhances convective heat transfer.

In birds, the beak and bare facial skin can serve as thermal windows. Blood flow to these regions increases during heat exposure, promoting heat loss without the water cost of panting.

Coat Characteristics

Coat color and thickness affect heat absorption and dissipation. Lighter coats reflect solar radiation, while shorter, thinner coats allow better convective heat loss. Breed differences in coat characteristics contribute to the superior heat tolerance of indigenous tropical cattle breeds like Sahiwal and Gyr compared to crossbred or temperate breeds [13][25].

Behavioral Adaptations: Avoiding the Heat

Shade-Seeking and Microhabitat Selection

Behavioral thermoregulation is often the first line of defense against heat. Animals seek shade, water, or cooler microhabitats during the hottest parts of the day. In tropical pasture systems, tree shade significantly enhances animal comfort. Cattle under silvopastoral shade consistently exhibited lower body temperatures, respiration rates, and panting scores, with significant differences amplified under heat stress conditions when THI exceeded 74 [25].

Shade matters for both indigenous and crossbred cattle, though breed differences persist. Gyr cattle demonstrated better thermoregulatory responses than Girolando cows under identical shade conditions [25]. Discriminant analysis accurately classified animals by system at over 92% accuracy based on physiological traits, confirming that shade is a measurable and effective heat mitigation strategy [25].

Temporal Activity Shifts

Many desert and tropical animals shift activity to cooler periods. Nocturnal activity, early morning foraging, and midday rest are common patterns. These behavioral adjustments reduce exposure to peak solar radiation and high ambient temperatures.

Water Contact and Wallowing

Wallowing in mud or water provides both conductive cooling and evaporative cooling as moisture slowly evaporates from the coat. Elephants, pigs, and buffalo use this strategy. The mud coat also provides sun protection and reduces insect harassment.

Genetic and Molecular Adaptations: The Cellular Response

Heat Shock Proteins

Heat shock proteins are molecular chaperones that protect cellular proteins from denaturation during heat stress. When cattle are exposed to heat stress with skin surface temperatures exceeding 35°C, gene networks respond to environmental heat loads with both intracellular and extracellular signals that coordinate cellular and whole-animal metabolism changes to store heat and rapidly increase evaporative heat loss [5].

Genes associated with heat tolerance in cattle include Hsp70, HSF1, HspB8, SOD1, PRLH, ATP1A1, MTOR, and EIF2AK4 [5]. These genes represent valuable resources for breeding programs aimed at increasing cattle thermotolerance [5].

Species-Specific Thermal Limits

Comparative studies reveal that heat tolerance can be an intrinsic species characteristic. In nematodes, Caenorhabditis briggsae exhibits enhanced survival, growth, and reproduction at elevated temperatures compared to Caenorhabditis elegans [4]. Notably, C. briggsae isolates from both tropical and temperate regions were equally resistant to heat stress, suggesting that elevated thermal tolerance is an intrinsic feature of this species instead of an environmental adaptation [4].

The molecular basis involves a rapid and robust heat shock response. The peak expression of the heat shock protein gene hsp-16.2 occurred at a temperature 2°C higher in C. briggsae than in C. elegans, demonstrating that this species has evolved a higher thermal limit for key molecular processes [4].

Fitness Trade-Offs

Heat tolerance often comes with costs. Despite its superior thermal resistance, C. briggsae showed higher sensitivity to oxidative, osmotic, and endoplasmic reticulum stress, suggesting a potential fitness trade-off [4]. This pattern has important implications for understanding evolutionary constraints on heat adaptation.

Developmental and Life-History Adaptations

Embryonic Heat Tolerance

Reptile embryos are particularly vulnerable to warming because eggs lack parental care during incubation and embryos have limited ability to behaviorally thermoregulate [10]. Warming temperatures cause increases in both mean and variance of nest temperatures, making it crucial to consider embryo responses to both chronic and acute heat stress [10].

Research across 16 squamates, 16 turtles, five crocodilians, and the tuatara reveals relatively large variation in chronic and acute heat tolerance across species [10]. There are currently no standard metrics or terminology for determining heat stress of embryos, which impedes comparisons across studies and species [10].

Developmental Windows of Tolerance

The hot spring frog Buergeria japonica demonstrates that heat tolerance can be limited to specific developmental windows. This species, referred to as the hot spring frog, tolerates extremely high temperatures, but only for a limited time during development [3]. At temperatures higher than 35°C, tadpoles could not survive until the completion of metamorphosis, contrary to previous field observations [3].

Behavioral experiments showed attenuation of the high temperature preference of B. japonica tadpoles associated with developmental stages, suggesting that they can tolerate extreme temperatures for a limited time window during development until metamorphosis [3]. The Seranma hot spring population showed the highest survival rate and accelerated development speed, indicating population-level variation in thermal adaptation [3].

Accelerated Development

Some species accelerate development to escape thermally stressful environments. The hot spring frog tadpoles that developed faster had higher survival rates in hot spring conditions [3]. This strategy reduces the time spent in vulnerable developmental stages.

Thermal Plasticity: Acclimation and Adaptation

Reversible Plasticity

Reversible plasticity allows individuals to adjust their heat tolerance in response to short-term environmental variation. Tropical intertidal snails of the species Echinolittorina malaccana can acclimate their lethal thermal limit by approximately 2°C through laboratory acclimation [20]. This reversible plasticity accounts for daily and tidal variations in microhabitat temperature [20].

Non-Reversible Plasticity

Non-reversible plasticity reflects population-specific, lifelong adjustments to local thermal conditions. Warm-shore snail populations exhibited heat tolerance plasticity over a higher temperature range compared to cool-shore populations, giving an overall acclimation capacity of 2.9°C for the populations combined [20].

Non-reversible heat tolerance plasticity, likely established after larvae settle on the shore, should be energetically beneficial in preventing heat shock protein overexpression [20]. This form of plasticity accounts for lifelong shoreline temperature conditions [20].

Limits of Plasticity

Thermal tolerance does not always predict survival during extreme events. In tropical intertidal snails, responses to heat-wave exposure were complex and not always predictable from thermal tolerance traits [24]. This arises from a mismatch in thermal tolerance and desiccation tolerance, such that variation in daily thermal maximum and duration of the heat-waves produced different survival responses for each species [24].

Habitat-Specific Adaptations

Tropical Savannas

Savanna animals face high solar radiation, seasonal drought, and limited shade. Large herbivores like elephants and giraffes combine anatomical adaptations with behavioral strategies. Elephants use ear flapping, mud wallowing, and water contact. Giraffes have elongated necks that increase surface area for heat dissipation and allow access to cooler air at height.

Arid Deserts

Desert animals face the dual challenge of extreme heat and water scarcity. Adaptations include concentrated urine, dry feces, and reduced evaporative water loss. Desert-adapted birds use vocal panting to enhance heat tolerance while potentially maintaining communication [28].

Small desert mammals often are nocturnal, spending the hottest hours in underground burrows where temperature and humidity are more stable. Their kidneys are highly efficient at conserving water.

Hot Springs

Hot spring habitats present extreme thermal conditions that few species can tolerate. The hot spring frog Buergeria japonica is a notable exception, tolerating extremely high temperatures during specific developmental windows [3]. This species demonstrates that heat tolerance can be habitat-specific and developmentally regulated.

Tropical Intertidal Zones

Intertidal animals experience extreme thermal heterogeneity, with temperatures fluctuating dramatically with tides and solar exposure. The tropical rocky-intertidal gastropod Echinolittorina malaccana exhibits both reversible and non-reversible heat tolerance plasticity [20]. These snails face the additional challenge of desiccation during low tide exposure, requiring integrated thermal and water conservation strategies [24].

Practical Assessment: Measuring Heat Tolerance

Temperature-Humidity Index

The temperature-humidity index (THI) combines temperature and humidity to estimate environmental heat load. THI values above 74 trigger heat stress responses in cattle, with severity increasing as THI rises [25]. In dairy systems, THI is used to guide management decisions about shade provision, cooling, and feeding adjustments.

Physiological Indicators

Respiration rate is the most sensitive physiological indicator of heat stress in cattle. In Sahiwal heifers, respiration rate surged by 18.7% at THI 76 compared to thermoneutral conditions [12]. Rectal temperature also increases, though more modestly, rising to 39.47°C at THI 76, a 2.3% increase versus thermoneutral THI 67 [12]. Pulse rate rose by 13.6% under hot-dry stress [12].

Cortisol serves as a hormonal stress indicator, though its response is biphasic. Cortisol dropped at moderate THI before rebounding 1.8-fold at THI 76 [12]. This pattern requires careful interpretation when monitoring herd stress levels.

Infrared Thermography

Infrared thermography provides non-invasive measurement of body surface temperatures. In dairy cattle, eye temperature showed a strong correlation with TNF-alpha and cortisol, making it a useful indicator of stress status [13]. This technology can be integrated into precision livestock farming systems for real-time heat stress detection [16].

Behavioral Scoring

Panting scores provide a practical visual assessment of heat stress in cattle. Animals under shade consistently exhibited lower panting scores compared to those in full sun, with differences amplified under heat stress conditions [25]. Regular behavioral observation remains a valuable low-cost monitoring tool.

Management Strategies for Heat-Stressed Animals

Environmental Modification

Although weather cannot be changed, the animal environment can be modified to minimize heat stress [23]. Providing suitable housing, shade, and ventilation helps animals dissipate heat load [23]. Physical techniques to ameliorate the atmosphere and decrease animal heat production are categorized alongside physiological and nutritional techniques [23].

Silvopastoral systems integrating tree cover into pasturelands offer promising strategies to mitigate heat stress in tropical livestock production [25]. Tree shade from Eucalyptus urograndis significantly improved thermal comfort indices in Gyr and Girolando dairy cattle in the Brazilian Cerrado [25].

Nutritional Interventions

Heat stress causes a decline in dry matter intake, yet the cow's energy and protein requirements increase in hot environments [21]. This creates a nutritional challenge that requires careful feed management.

Betaine supplementation has been demonstrated to increase tolerance to hypertonic and thermal stressors at the cellular level [6]. Intracellular betaine functions similar to molecular chaperones, reducing the need for inducible heat shock protein expression [6]. Betaine also reduces oxidative damage and improves intestinal integrity during heat stress [6].

In human exercise contexts, hydration and electrolyte planning remain the practical foundation for heat management, with menthol appearing most consistently useful for perceptual cooling [17]. While these findings come from human sports science, they illustrate general principles of thermal management that inform animal nutrition research.

Genetic Selection

Genomic tools offer pathways to breed more heat-tolerant animals. Reaction-norm animal models can genetically improve growth performance under high-heat environments. In purebred Duroc pigs, estimated heritability of average daily gain ranged from 0.38 to 0.73 across thermal load values of 0 to 8, indicating substantial genetic variation for heat tolerance [7].

In tropical beef cattle, genomic reaction norm models revealed that genetic expression of feed efficiency traits is influenced by climatic conditions. Heritability estimates for dry matter intake ranged from 0.22 to 0.39 and for residual feed intake from 0.08 to 0.28 across the THI gradient [19]. Genotype-by-environment interaction was more pronounced when THI exceeded 76 [19].

Combining precision livestock farming and genomic selection provides a complementary approach to enhance heat stress detection and develop thermotolerant dairy cattle [16]. Wearable sensors, rumen boluses, infrared thermography, and weather-based decision-support systems can detect early physiological and behavioral indicators of heat stress in real time [16].

Common Failure Patterns in Heat Management

Inadequate Shade Provision

Failure to provide adequate shade is a common management error. Cattle in full sun consistently show higher body temperatures, respiration rates, and panting scores compared to shaded animals [25]. Shade becomes increasingly critical as THI exceeds 74 [25].

Ignoring Humidity Effects

Temperature alone does not capture heat stress risk. Humidity impairs evaporative cooling, making hot-humid conditions more dangerous than hot-dry conditions at the same temperature. In dairy cattle, hot-humid seasons produced higher TNF-alpha, IL-6, IL-1-beta, and cortisol levels compared to hot-dry seasons [13].

Overlooking Breed Differences

Crossbred and temperate breeds often show weaker heat tolerance than indigenous tropical breeds. Karan Fries cows showed significantly higher body surface temperatures and greater reductions in thyroid hormones compared to Sahiwal cows under identical heat stress [13]. Management plans must account for breed-specific thermoregulatory capacity.

Misinterpreting Cortisol Patterns

The biphasic cortisol response to increasing THI can lead to misinterpretation. Cortisol drops at moderate THI before rebounding at higher THI [12]. Monitoring programs that sample only at moderate heat loads may miss the stress response that emerges at higher THI values.

Neglecting Water Access

Evaporative cooling requires water. Animals panting or sweating lose significant water and require ready access to clean drinking water. Water restriction compounds heat stress and accelerates dehydration.

Limitations and Knowledge Gaps

Limited Species Coverage

Heat tolerance has been studied in only 1 to 2% of bird species, mostly from the southern subtropics [14]. This limited coverage constrains our ability to predict which species are at risk from climate change [14].

Methodological Inconsistencies

There are no standard metrics or terminology for determining heat stress of reptile embryos, which impedes comparisons across studies and species [10]. Standardized approaches are needed to integrate embryo responses to chronic and acute temperatures in predictive models [10].

Thermal Tolerance Does Not Equal Heat-Wave Survival

Responses to heat-wave exposure are complex and not always predictable from thermal tolerance traits [24]. The mismatch between thermal tolerance and desiccation tolerance means that variation in daily thermal maximum and duration of heat-waves produces different survival responses for each species [24].

Trade-Offs and Constraints

Heat tolerance often comes with fitness trade-offs. Caenorhabditis briggsae shows superior heat resistance but higher sensitivity to oxidative, osmotic, and endoplasmic reticulum stress [4]. Understanding these trade-offs is essential for predicting evolutionary responses to climate change.

Research Gaps in Production Species

Bibliographic mapping of heat tolerance research in pigs and poultry reveals an emphasis on Gallus gallus with more attention needed on other species such as ducks and turkey [9]. Research from South America appears relatively isolated, with funding and publication factors likely governing this pattern [9].

Professional Escalation Criteria

When to Seek Expert Assistance

Farmers and animal managers should escalate to veterinary or animal science professionals when:

• Respiration rates remain elevated above breed-specific baselines despite shade and cooling interventions
• Rectal temperatures exceed 40°C in cattle despite environmental modification
• Multiple animals show signs of severe heat stress simultaneously
• Feed intake declines by more than 10% during hot periods
• Mortality or morbidity increases during or immediately following heat events
• Reproductive performance declines during hot seasons

When to Consult Genetic Specialists

Breeding programs aimed at improving heat tolerance should involve genetic specialists when:

• Selecting animals for thermotolerance traits
• Interpreting genomic reaction norm models for heat tolerance
• Designing crossbreeding programs that balance heat tolerance with production traits
• Evaluating genotype-by-environment interactions in local conditions

When to Engage Conservation Biologists

Wildlife managers and conservation professionals should engage specialists when:

• Assessing species vulnerability to climate change
• Designing protected areas that include thermal refugia
• Planning translocation programs for heat-sensitive species
• Evaluating the impacts of extreme heat events on populations

Frequently Asked Questions

How do elephants use their ears to stay cool?

Elephant ears contain extensive networks of superficial blood vessels. When the animal flaps its ears, it increases airflow across these vessels, promoting convective heat loss. The large, thin ears provide extensive surface area for blood cooling, making ear flapping an effective anatomical adaptation for heat dissipation in tropical savanna habitats.

What is the temperature-humidity index and why does it matter?

The temperature-humidity index combines temperature and humidity to estimate environmental heat load. Humidity impairs evaporative cooling, making hot-humid conditions more dangerous than hot-dry conditions at the same temperature. In cattle, THI values above 74 trigger heat stress responses, with severity increasing as THI rises [25].

Can animals develop heat tolerance through acclimation?

Yes, many animals can adjust their heat tolerance through acclimation. Tropical intertidal snails can shift their lethal thermal limit by approximately 2°C through laboratory acclimation [20]. However, acclimation capacity varies by population and species, and thermal tolerance does not always predict survival during extreme heat-wave events [24].

Why do some cattle breeds handle heat better than others?

Indigenous tropical breeds like Sahiwal and Gyr have evolved genetic adaptations for heat tolerance, including more efficient thermoregulation and lower body surface temperatures under heat stress [13][25]. Crossbred breeds like Karan Fries and Girolando show weaker thermoregulatory responses, with higher body surface temperatures and greater reductions in thyroid hormones under identical conditions [13].

What happens to animals at the cellular level during heat stress?

Heat stress disrupts protein folding, damages membranes, and increases oxidative stress. Cells respond by producing heat shock proteins that protect proteins from denaturation [5]. Heat stress also disturbs the steady-state concentrations of free radicals, resulting in both cellular and mitochondrial oxidative damage [21].

How do hot spring animals survive extreme temperatures?

The hot spring frog Buergeria japonica tolerates extremely high temperatures, but only during a limited developmental window before metamorphosis [3]. At temperatures above 35°C, tadpoles cannot survive until metamorphosis completes [3]. This species demonstrates that heat tolerance can be habitat-specific and developmentally regulated.

What are the main management strategies for reducing heat stress in livestock?

Key strategies include providing shade through silvopastoral systems or structures [25], ensuring adequate water access, adjusting feeding practices to account for reduced intake and increased energy requirements [21], and using genetic selection for thermotolerance [7][16]. Physical, physiological, and nutritional techniques can be combined to help animals dissipate heat load [23].

Why is humidity more dangerous than high temperature alone?

Humidity impairs evaporative cooling because the air already contains high moisture levels, reducing the gradient for water evaporation from respiratory surfaces and skin. In dairy cattle, hot-humid seasons produced higher inflammatory cytokine and cortisol levels compared to hot-dry seasons [13]. This is why the temperature-humidity index is a better indicator of heat stress than temperature alone.

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References and Further Reading

• NCBI Literature Resources. National Center for Biotechnology Information.
• PubMed. National Library of Medicine.
• Long-Term Heat Tolerance and Accelerated Metamorphosis: Hot Spring Adaptations of Buergeria japonica.. Zoological science, 2024.
• Heat tolerance and genetic adaptations in Caenorhabditis briggsae: insights from comparative studies with Caenorhabditis elegans.. Genetics, 2025.
• Genes related to heat tolerance in cattle-a review.. Animal biotechnology, 2023.
• Betaine Supplementation May Improve Heat Tolerance: Potential Mechanisms in Humans.. Nutrients, 2020.
• Reaction-norm animal model analysis of average daily gain heat tolerance in purebred Duroc pigs.. Animal science journal = Nihon chikusan Gakkaiho, 2024.
• The Physiology of Heat Tolerance in Small Endotherms.. Physiology (Bethesda, Md.), 2019.
• Bibliographic mapping for heat tolerance in pigs and poultry.. Tropical animal health and production, 2023.
• Heat tolerance of reptile embryos: Current knowledge, methodological considerations, and future directions.. Journal of experimental zoology. Part A, Ecological and integrative physiology, 2021.
• Night-time heat: How real-world exposure and human diversity redefine vulnerability.. 2026.
• Distinct physiological and immunoendocrine responses in indigenous dairy heifers during cold-humid (THI-50) vs. hot dry (THI-76) climatic conditions.. 2026.
• Effect of hot-dry and hot-humid seasons on the plasma cytokines, hormones, and body surface temperatures in lactating indigenous (Sahiwal) and crossbred (Karan Fries) cows raised in tropical climates.. 2026.
• Physiological constraints on heat adaptation in birds.. 2026.
• Dynamic impacts of face masks and walking duration on pedestrian thermal comfort in shaded outdoor environments during summer.. 2026.
• Integrating Precision Livestock Farming and Genomic Tools for Heat Stress Mitigation in South African Dairy Cattle.. 2026.
• Nutritional Strategies to Support Performance Maintenance and Recovery in Football Under Hot Environmental Conditions: A Narrative Review.. 2026.
• Review: Genomic insights into the adaptive traits and stress resistance in modern horses.. 2026.
• Exploring the impact of heat stress on feed efficiency in tropical beef cattle using genomic reaction norm models.. Animal, 2025.
• Non-reversible and Reversible Heat Tolerance Plasticity in Tropical Intertidal Animals: Responding to Habitat Temperature Heterogeneity. Frontiers in Physiology, 2019.
• Deterioration effects of heat stress on farm animals performance in tropical and subtropical regions. 2020.
• Symptoms of Heat Stress in Tropical and Subtropical Regions on Farm Animals. 2020.
• The techniques used in tropical and subtropical regions to reduce the negative effects of heat stress on farm animals. 2020.
• Heat-wave tolerance in tropical intertidal animals: accounting for thermal and desiccation tolerances. 2019.
• Shade matters: heat stress alleviation in Gyr and Girolando cows through silvopastoral management in tropical conditions. International journal of biometeorology, 2026.
• Different Types of Heat Tolerance Indices Used in Dairy Production. Indian Veterinary Journal, 2024.
• Heat tolerance and its evolutionary potential along a latitudinal gradient in Daphnia magna. Evolutionary Ecology Research, 2014.
• Vocal panting: a novel thermoregulatory mechanism for enhancing heat tolerance in a desert-adapted bird. Scientific Reports, 2020.

This article is educational and does not replace institutional policy, professional advice, or applicable safety and regulatory requirements.