mon-fri 9-13 / 14.30-18.30
Animal heating lamps represent an essential tool in the management of professional farms and livestock facilities, as they ensure thermal control in environments where the natural temperature is not sufficient to support animal growth and well-being. These devices, based on infrared technology, emit radiant heat that penetrates tissues directly without heating the surrounding air, thus maintaining superior energy efficiency compared to conventional systems. Their application ranges from small poultry farms to large livestock facilities, as well as veterinary clinics, research facilities, and zoos, where temperature management is a critical factor in reducing neonatal mortality and optimizing animal development times.
The importance of a correct heat source in the early stages of animal life cannot be underestimated: newborns of all species have immature thermoregulatory capacities and depend heavily on external sources to maintain body temperature. Infrared heating lamps not only provide constant and controllable heat but also stimulate blood circulation, improve nutrient absorption, and significantly reduce risks related to adverse environmental conditions, especially during unfavorable seasonal periods such as autumn and winter.
The choice of an appropriate lamp depends on numerous technical factors such as power output, coverage diameter, moisture resistance, and ease of maintenance—aspects that become even more important considering these devices remain on for many consecutive hours in potentially hostile environments characterized by high humidity, biological contamination, and the presence of corrosive agents.
Infrared heating lamps offer decisive operational advantages over traditional convective heat sources. Firstly, infrared technology allows for a much more uniform and controlled heat distribution: radiant heat directly reaches the animals without dissipation into unoccupied areas, resulting in significant energy savings that translate into a substantial reduction in monthly operating costs. A second fundamental advantage concerns hygiene and health prevention: since the lamps do not move air, they do not generate dust movement or create damp areas where mold or pathogens could develop—a critical aspect in environments where biosafety is a regulatory and productive imperative.
From a biological perspective, infrared heat stimulates vasodilation and improves tissue perfusion, accelerating nutrient absorption and promoting faster, more uniform animal growth. Furthermore, reducing thermal stress in newborns directly translates into lower mortality rates, better feed conversion, and significantly shorter times to reach commercial weight—factors that significantly impact farm profitability. Installation is simple and does not require complex structural interventions: the lamps are designed to be suspended or mounted quickly, with compact dimensions that allow for space optimization without compromising use.
In the market for animal heating lamps, two main construction categories can be identified: glass infrared lamps and ceramic lamps. Glass lamps, made with impact and thermal shock-resistant glass, offer high transparency that facilitates visual inspection of the heating element and allows monitoring of the operating status. These are available in standard and high-power versions, typically ranging from 250W to 1300W, depending on the desired coverage diameter and environmental conditions. Ceramic lamps, on the other hand, feature a more robust body and potentially longer lifespan, in addition to offering better resistance to highly humid and corrosive environments, although they require less immediate inspection procedures due to the opaque material.
A parallel distinction concerns the mounting support: lamps are available with cable suspension, fixed bracket mounting, or portable structures equipped with adjustable legs. Professional models for intensive farming generally carry IP65 certification, which guarantees total protection against dust ingress and exposure to water jets—an essential prerequisite for use in environments where sanitization procedures require frequent cleaning with water pressure. Some manufacturers also provide integrated or compatible temperature control systems, allowing for automatic and more precise regulation of the power output based on measured environmental conditions.
Selecting the most appropriate heating lamp requires a careful assessment of several technical and application parameters. The first criterion is the nominal power, which must be correlated to the number of animals to be heated and the size of the area of use: an undersized lamp will not reach the target temperature, while an oversized one will lead to excessive energy costs and potential local overheating risks. As a rule of thumb, a single 250W lamp effectively covers a circular area of approximately 1-1.5 meters in diameter, while a 1000W lamp can cover up to 2.5-3 meters, although these values vary depending on the suspension height and the starting ambient temperature.
A second decisive factor is resistance to humidity and corrosion: environments with high relative humidity, typical of poultry or pig farms, require lamps with a minimum IP65 certification and construction materials that do not degrade rapidly under the attack of ammonia and other alkaline agents. It is also essential to verify the lamp's compatibility with existing suspension and control systems in the facility, as well as the availability of spare parts and technical assistance from the supplier. Common mistakes include underestimating the accelerated wear of infrared filaments in contaminated environments, not adequately considering the ventilation of the surrounding area (which could cause excessive heat loss), and neglecting preventive maintenance procedures, which include periodic cleaning of the lamp's external surface to avoid dust accumulation that reduces radiative efficiency.
Animal heating lamps intended for the European market must comply with Directive 2014/30/EU regarding electromagnetic compatibility and Directive 2014/35/EU regarding the safety of electrical materials, thus ensuring CE compliance. Furthermore, devices used in livestock environments are subject to animal welfare regulations, which in some countries require specific construction features aimed at preventing accidental burns and ensuring uniform thermal distribution. IP65 certification represents a minimum standard recognized in the professional field, certifying total impermeability to dust and high-pressure water jets, a fundamental aspect for maintaining the integrity and safety of the device over time.
From a livestock regulatory perspective, several countries have adopted specific guidelines for the lighting and heating of farm animals: the European Union stipulates that heat sources must be positioned so as not to cause burns and must allow animals to move away if the heat becomes excessive. Electrical safety requirements include the need for high-sensitivity residual current devices (30 mA) in damp environments, as well as equipotential grounding to prevent accidental shock risks. In veterinary and zoo contexts, additional specifications concern materials in contact with the biological environment, which must be non-toxic and easily sanitizable according to local infectious disease prevention protocols.
Explore all the products in the category and compare the available solutions to find the one best suited to your operational context. Always consider the interaction between power, construction type, specific environmental conditions, and the regulatory requirements of your application sector to ensure optimal performance and device longevity.
They are devices that emit radiant heat through glass or ceramic elements, specifically designed to provide localized heat to young and newborn animals. Infrared heat penetrates tissues directly without heating the air, ensuring energy efficiency and thermal uniformity in the breeding environment.
For small-scale farms with 20-30 newborn animals, a 250-500W lamp is generally sufficient. The power must be calibrated based on the number of heads, the external ambient temperature, and the desired coverage diameter, considering that every additional watt increases the reachable thermal area.
Cleaning should be performed weekly in high-contamination environments (poultry, pigs) by gently removing dust with a soft, damp cloth. In less critical environments, monthly cleaning is sufficient. Avoid using aggressive detergents that could compromise the transparency of the glass.
If positioned correctly at a height of 60-80 centimeters from the animals and associated with shaded areas where animals can move away, the risk of burns is minimal. Modern design includes protections and shields that diffuse heat, limiting direct contact points with the radiant element.
IP65 certification is the minimum standard required for livestock environments, ensuring total protection from dust and high-pressure water jets. This certification ensures electrical safety and device longevity even under conditions of frequent sanitization with pressurized water.
Infrared lamps reach 90% of their operating temperature within 3-5 minutes of being turned on. This rapid heating makes them ideal for quickly starting breeding cycles, unlike convective systems that require significantly longer times.
Yes, they are widely used in veterinary clinics to maintain thermoneutrality in animals undergoing anesthesia, particularly for newborns and young species. Their ability to precisely control temperature is valued in medical contexts where thermal stability is critical for survival.
A 1000W (1 kW) lamp turned on for 12 hours daily for 30 days consumes approximately 360 kWh per month. Operational costs vary depending on the local energy tariff, but this calculation allows for a reliable estimate of energy expenditure related to continuous lamp use.
English 
Italian
French
German
Spanish