Are Refrigerant Leaks Dangerous?

Refrigerant escape in air conditioning and refrigeration systems is a concern in addition to the equipment’s functionality. They also put the health and safety of individuals and the environment at risk. Understanding the risks associated with refrigerant leakage is crucial for preventing potential hazards, regardless of whether you are managing a residential air conditioner or a sizeable commercial cooling system. This blog post will investigate the hazards of refrigerant leaks, the indicators of loss, and the appropriate course of action in such circumstances.

What is the definition of refrigerant?

Chemical compounds known as refrigerants are employed in HVAC (heating, ventilation, and air conditioning) systems to absorb and release heat, enabling the system to chill air or refrigerate items. Common varieties include R-22, R-410A, and more environmentally friendly options, such as R-32. Although these substances are essential for chilling, their leakage can result in substantial complications.

Types of Refrigerants and Their Properties

Refrigerants are indispensable to cooling systems, as they efficiently operate the air conditioning and refrigeration units by absorbing heat. Various refrigerants have been created, each with distinct environmental effects and properties. It is crucial for individuals involved in HVAC systems or seeking to modify their equipment to comprehend the properties, uses, and properties of these refrigerants.

Chlorofluorocarbons (CFCs) 

Examples: R-12, R-11 Properties:

CFCs were among the first refrigerants to be extensively used, and they were recognized for their exceptional heat absorption and stability. They were widely used in early refrigeration systems due to their non-flammability and non-toxicity.

• Environmental Impact: CFCs notoriously harm the ozone layer. Their eventual phase-out under the Montreal Protocol was precipitated by their elevated Ozone Depletion Potential (ODP) and Global Warming Potential (GWP).
• Applications: This substance has historically produced aerosol propellants, refrigerators, and air conditioners.

Hydrochlorofluorocarbons (HCFCs)

Examples: R-22 and R-123 Properties:

• HCFCs were created as a transient substitute for CFCs, as they have a lower Ozone Depletion Potential.
• They are less stable than CFCs, causing them to decompose more readily in the atmosphere. However, they continue to be detrimental to the ozone layer.
• Although HCFCs are marginally less harmful than CFCs, they still contribute to ozone depletion and have a high GWP. An extensively used HCFC, R-22, is currently undergoing a phase-out process.
• Utilized in refrigeration, air conditioning systems, and heat exchangers.

Hydrofluorocarbons (HFCs) 

Examples: R-134a, R-410A, R-404A Properties:

• HFCs are refrigerants that do not deplete the ozone and were introduced as substitutes for CFCs and HCFCs.
• Zero ODP makes them safe for the ozone layer and possesses exceptional thermodynamic properties.
• Even though they do not impact the ozone layer, HFCs have a high GWP, significantly contributing to global warming. This has resulted in global regulations that are designed to decrease their utilization. Utilized extensively in contemporary residential and commercial refrigeration and air conditioning systems.

Hydrofluoroolefins (HFOs) 

Examples: R-1234yf, R-1234ze Properties:

HFOs are a contemporary category of ozone-friendly refrigerants with lower global warming potential (GWP) than HFCs.

• Although mildly flammable, they are deemed secure for use in various applications.
• HFOs are a more sustainable alternative due to their substantially lower GWP values.
• HVAC systems, commercial refrigeration, and automotive air conditioning.

Natural Refrigerants

Natural refrigerants are naturally present in the environment and provide an environmentally favorable alternative to synthetic refrigerants. These consist of:

Ammonia (R-717):

Ammonia is highly efficient and possesses exceptional thermodynamic properties. However, it is toxic and may be combustible in high concentrations.

• Environmental Impact: Ammonia is an environmentally favorable refrigerant with zero ODP and GWP.
• Applications: Frequently implemented in industrial refrigeration systems.

Carbon dioxide (CO₂, R-744):

• Properties: CO₂ is non-flammable, non-toxic, and possesses exceptional thermal transfer capabilities. However, its operation at extremely high pressures necessitates specialized apparatus.
• Environmental Impact: CO₂ has no ozone depletion potential and a GWP of 1, which is the lowest conceivable.
• Typical Applications: Industrial cooling systems, commercial refrigeration, and heat exchangers.

Propane (R-290):

Propane, a hydrocarbon refrigerant, is highly efficient but flammable, necessitating the implementation of safety measures.

• Environmental Impact: Propane is one of the most environmentally beneficial refrigerants due to its extremely low GWP and zero ODP.
• Applications: Refrigeration, heat pumps, and air conditioning in residential and modest commercial settings.

Blended Refrigerants Examples: R-407C, R-410A

Characteristics:

• Blended refrigerants comprise two or more combined components to accomplish desired properties, such as improved energy efficiency or a lower GWP.
• These mixtures frequently function as replacements for obsolete refrigerants that have been phased out.
• Environmental Impact: The combination’s components determine the environmental impact. Some have a relatively low GWP, while others are more detrimental.
• Applications: Commonly employed in commercial refrigeration, heat exchangers, and air conditioning systems.

Key Characteristics of Refrigerators

It is imperative to comprehend the fundamental characteristics of refrigerants when conducting a comparison:

• Ozone Depletion Potential (ODP): This parameter quantifies the refrigerant’s capacity to deplete the ozone layer. HFCs, HFOs, and natural refrigerants have zero ODP, whereas CFCs and HCFCs have a high ODP.
• Global Warming Potential (GWP): The refrigerant’s impact on global warming compared to CO₂ is quantified by GWP. Refrigerants with low GWP values are more desirable due to the substantial contribution of high GWP values to climate change.
• Toxicity and Flammability: Certain refrigerants, such as propane and ammonia, are toxic or flammable, necessitating cautious handling. Others, such as HFCs and HFOs, are non-flammable and nontoxic, rendering them safer for various applications.
• Efficiency: Refrigerants that possess superior heat absorption and transfer properties enhance the operation of refrigeration systems, thereby reducing energy consumption. 

Signs of a Refrigerant Leak

One of the most prevalent issues in air conditioning and refrigeration systems is refrigerant leaks. Early detection of these leaks can prevent costly repairs and potential health concerns. Any loss of refrigerants can result in system inefficiency and potential hazards, as they are essential for the refrigeration process. The following are the primary indicators of a refrigerant leak:

Insufficient Efficiency of Cooling

A decrease in the chilling capacity of your HVAC system is one of the initial indicators of a refrigerant leak. If the air conditioner or refrigerator is no longer cooling as effectively as it once did, a leak may prevent the refrigerant from accumulating and releasing heat.

What to observe: The system blows warm or lukewarm air despite being set to chill, or rooms or spaces take longer to reach the desired temperature.

Increased Energy Costs

If the refrigerant in your cooling system is depleted, it must operate at a higher level to maintain the desired temperature. Increasing the system’s energy consumption will result in high utility expenses.

What to monitor: Your HVAC system may compensate for lost refrigerant if you experience an abrupt increase in energy bills without significant changes in usage patterns.

Bubbling or hissing noises

Unusual noises emanating from the HVAC unit frequently indicate a refrigerant escape. These can result from minor leaks that allow refrigerants to flee under pressure. A hissing noise may be produced if the breach is in the liquid line, while bubbles may form when refrigerant leaks from the evaporator or condenser coils.

What to monitor: Listen for hissing or bubbling noises from the vicinity of the refrigerant lines or coils.

Evaporator coils accumulate ice.

Your air conditioner’s evaporator coils may freeze due to a refrigerant escape. A decrease in temperature, which is crucial for heat absorption, may cause condensation on the coil. Blockages and additional damage may result over time.

What to observe: The evaporator coils, typically situated in an air conditioner’s indoor portion, may develop visible ice or frost. Additionally, diminished airflow from the apertures may be observed as ice obstructs the system.

Inexplicable Elevated humidity

Air conditioners cool your space and regulate humidity levels by extracting moisture from the air. If your system is deficient in refrigerant, it may not be able to dehumidify as effectively, resulting in elevated interior humidity levels.

What to monitor: A discernible rise in indoor humidity or a sensation of moisture in the air despite the air conditioner’s operation.

A fragrance that is either sweet or reminiscent of chlorine

Although refrigerants are typically odorless, some individuals complain of a slight, sweet, or chlorine-like odor in the event of a substantial refrigerant escape. This odor may occasionally be detectable near the outdoor unit or the refrigerant lines.

What to monitor: Persistent odors near the HVAC unit or refrigerant lines that are not explained.

Short cycle of the compressor

The compressor circulates the refrigeration system’s refrigerant. When refrigerant levels are insufficient, the compressor may overheat and “short cycle,” causing the system to operate more frequently than usual. This can result in a complete failure of the compressor due to the compulsion it is under.

What to observe: The air conditioner runs for shorter periods than usual or frequently turns on and off in brief bursts.

Warm Air from Vents or Refrigerators

When a refrigerant leak occurs in an air conditioner or refrigerator, the system’s capacity to absorb heat is compromised, resulting in the circulation of heated air. Even though the unit is operational, you will observe that the air emanating from the vents or within the refrigerator is not as frigid as it should be.

What to observe: A refrigerator that is not maintaining the temperature of food or warm air emanating from the air conditioner ducts.

Tools for Detecting Refrigerant Leaks

Although visual and audible indicators may suggest a refrigerant escape, the issue may not be immediately apparent in certain instances. To determine the precise location of the leak, professional HVAC technicians employ specialized instruments such as soap bubble testing, UV dye, or electronic leak detectors.

What to observe: If additional indicators are present, but a breach cannot be visually verified, it may be necessary to consult a professional for a more accurate diagnosis. 

Risks to Health from Refrigerant Leaks

Refrigerant is a colorless and inert gas, making it easier to identify with specialized equipment. Respiratory complications may result from oxygen displacement in a confined space. Exposure to refrigerant gases can result in symptoms such as headaches, nausea, disorientation, or, in severe cases, loss of consciousness. Certain older refrigerants, such as R-22 (commonly referred to as Freon), are particularly hazardous. Heart issues, chemical burns, or lung injury may result from the inhalation of significant quantities of Freon. While modern refrigerants such as R-410A are intended to be safer, exposure to any refrigerant can still result in health hazards.

Environmental Impact of Refrigerant Leaks

The environmental consequences of refrigerant escape from air conditioning and refrigeration systems can be severe, contributing to ozone depletion and climate change. The emphasis has shifted to reducing the environmental impact of refrigerant emissions as older refrigerants were phased out and substituted with more environmentally friendly alternatives over the years. The environmental impact of refrigerant leakage is examined in greater detail below:

The depletion of ozone

Ozone depletion is one of certain refrigerants’ most significant environmental hazards, particularly older ones. For decades, refrigeration and air conditioning systems employed chlorofluorocarbons (CFCs) and hydrochlorofluorocarbons (HCFCs), including R-12 and R-22. Nevertheless, chlorine is present in these refrigerants, and when it is discharged into the atmosphere, it has the potential to decompose ozone molecules in the stratosphere. The ozone layer serves as Earth’s protective shield, preventing hazardous ultraviolet (UV) radiation from the sun. The quantity of UV radiation that reaches the surface is increased by a damaged ozone layer, which can result in a variety of environmental and health issues, including:

• Enhanced risk of skin cancer and cataracts in humans
• Causing harm to marine ecosystems, including plankton populations
• Causing harm to crops and vegetation that are susceptible to ultraviolet radiation
• The Montreal Protocol, implemented in 1987, eliminated CFCs and HCFCs because of their elevated Ozone Depletion Potential (ODP). Nevertheless, refrigerants that continue to seep into older systems can harm the ozone layer.

The phenomenon of global warming

Although many contemporary refrigerants, such as hydrofluorocarbons (HFCs) and hydrofluoroolefins (HFOs), have no Ozone Depletion Potential, their high Global Warming Potential (GWP) can still substantially impact climate change. The GWP is a metric that quantifies the amount of heat a greenhouse gas captures in the atmosphere compared to carbon dioxide (CO₂) over a specific period, typically 100 years. When refrigerants with high GWP are released into the atmosphere, they retain heat and contribute to global warming. Certain prevalent refrigerants have GWPs that are thousands of times greater than CO₂, indicating that they are significantly more effective at warming the planet. For instance,

• R-134a, a frequently employed HFC, has a global warming potential (GWP) of 1,430.
• R-410A has a GWP of 2,088 and R-404A has a GWP of 3,922.
• The significant impact of even small quantities of these refrigerants on global temperature increases can exacerbate climate change.

Contribution to the Greenhouse Effect

The greenhouse effect is exacerbated by the accumulation of refrigerants in the Earth’s atmosphere, which increases global temperatures. This is because gases capture the heat from the sun. This results in a variety of environmental issues, including:

• The melting of the polar ice caps has increased sea levels, which poses a hazard to coastal communities and ecosystems.
• Due to the rise in global temperatures, the frequency of extreme weather events, such as heat waves, hurricanes, and inundations, has increased.
• Global warming may force species to migrate or face extinction.

The Durability of the Environment

Certain refrigerants, such as CFCs and HCFCs, possess lengthy atmospheric lifetimes. For example, CFCs have the potential to remain in the atmosphere for up to 100 years, resulting in ongoing environmental harm long after they have been released. While HFCs, which are newer refrigerants, have shorter lifetimes, their high GWP still implies that they can contribute to warming while they are present in the atmosphere.

Phase-Outs and Environmental Regulations

Global regulations have been implemented to eliminate or scale back the utilization of high-ODP and high-GWP refrigerants due to their detrimental environmental impacts from refrigerant escapes. The primary regulations are as follows:

• The Montreal Protocol has successfully eliminated CFC use and is presently reducing HCFCs.
• The Kigali Amendment: This amendment to the Montreal Protocol is designed to reduce the use of HFCs by reducing production and consumption by more than 80% by 2050.
• These regulations encourage using environmentally beneficial refrigerants, including low-GWP HFOs and natural alternatives (e.g., ammonia, CO₂).

The Use of Natural Refrigerants as a Solution

To mitigate the environmental consequences of refrigerant breaches, numerous industries are transitioning to natural refrigerants, which have a significantly lower GWP and require no ODP. These consist of:

• Carbon dioxide (CO₂) is the most climate-friendly refrigerant, with a GWP of 1.
• Ammonia (R-717) is toxic and requires careful handling despite zero GWP and ODP.
• Propane (R-290) is flammable but has a low GWP (3) and no ODP.

These natural refrigerants are more environmentally sustainable and provide a viable alternative to the detrimental effects of synthetic refrigerants.

Preventing Refrigerant Leaks

The environmental impact of refrigerant leaks can be substantially reduced by reducing their frequency. The following are a few methods for preventing and minimizing leaks:

• Regular maintenance: Leakage can be promptly identified and resolved by conducting routine inspections and servicing of HVAC systems.
• Advanced systems that monitor refrigerant levels and detect leaks can alert technicians before substantial quantities of refrigerant are discharged.
• Proper disposal: When systems are decommissioned, refrigerants should be safely reclaimed and recycled to prevent their discharge into the atmosphere. 

Common Causes of Refrigerant Leaks

HVAC (Heating, Ventilation, and Air Conditioning) systems and refrigeration units are frequently plagued by refrigerant escape, resulting in decreased efficiency, increased energy costs, and potential environmental impact. It is possible to prevent these breaches and guarantee the efficient operation of your system by comprehending the causes of these leaks. The most prevalent causes of refrigerant escape are as follows:

Corrosion of the Evaporator Coils

Copper or other metals are frequently employed to construct evaporator coils, which are accountable for absorbing heat from the air. However, such materials are susceptible to corrosion over time. This corrosion frequently results from formic acid or formaldehyde in the environment, which results in minute pinhole breaches in the coils.

This phenomenon occurs because Acids are produced by the combination of moisture and chemicals in the air, including volatile organic compounds (VOCs), which progressively erode the metal.

Prevention: The coils can be safeguarded by performing routine maintenance and employing anti-corrosion coatings. Additionally, the risk of corrosion can be mitigated by ensuring that the space has adequate ventilation and air quality.

Erosion of metal as a result of friction

In certain instances, the system’s components may chafe against refrigerant lines, resulting in wear and tear over time. This constant friction can also cause small holes or fractures in the refrigerant lines, leading to leaks.

This phenomenon occurs because metal components can erode each other due to improper installation or vibration.

Prevention: To mitigate this issue, it is recommended that refrigerant lines be inspected and secured to prevent them from rubbing against other system components.

Manufacturing or Installation Defects or Improper Installation

If a refrigerant system is not installed correctly, leaks may occur at weak connection points or due to defective components. For instance, the refrigerant may be permitted to escape due to inadequate soldering or incorrect connections in the refrigerant lines.

This phenomenon occurs because technicians who are inexperienced or inadequately trained may need to identify minor defects during the installation process or overlook proper installation protocols.

Prevention: Before the operation, it is imperative to engage certified professionals for installation and guarantee that the system undergoes exhaustive testing.

Physical Damage to Refrigerant Lines

External forces, such as accidents, construction work, or equipment impacts, can damage refrigerant lines. If these lines are punctured or deformed, the refrigerant may escape, resulting in system inefficiency or failure.

This phenomenon occurs because cracks or fractures in the refrigerant lines can be caused by accidental impacts, such as those from heavy equipment or improper handling during repairs.

Prevention: Ensure that refrigerant lines are adequately insulated and shielded from potential impacts, and handle them with caution during maintenance or repairs.

Usual Wear and Tear Over Time

The components of HVAC systems deteriorate as they age. However, this wear and tear can eventually result in refrigerant leaks, particularly in older systems that may not have been routinely maintained.

This phenomenon occurs because seals, valves, and connectors degrade over time, resulting in refrigerant leakage.

Prevention: Routine inspections and maintenance can assist in the early identification of worn-out components, enabling the expeditious repair or replacement of the defective component before a leak.

System Stress and Vibrations

During operation, HVAC systems frequently encounter substantial vibrations, mainly when components such as the compressor or fan are unbalanced. These vibrations can induce tension on refrigerant lines and connections, resulting in their deterioration or the formation of cracks over time.

This phenomenon occurs because the system may experience excessive vibration due to unbalanced or defective components, resulting in damaged lines or loose connectors.

Prevention: Components such as the compressor and fan should be routinely inspected and balanced. Ensure that the system is adequately supported to reduce high vibration levels.

Schrader valve that is defective

The Schrader valve is a component employed in HVAC systems to facilitate the addition or removal of refrigerant. If this valve malfunctions or is damaged, refrigerant emissions may result.

This phenomenon occurs because the Schrader valve’s seals may degrade over time, or the valve may become loose or damaged.

Prevention: Conduct a routine inspection of the Schrader valve to verify that it is in good condition and does not allow refrigerant to escape.

System Overcharging

When excess refrigerant is added, excessive pressure on HVAC components can result in breaches at multiple locations within the system. Poor cooling performance and compressor failure may also result from overcharging the system.

This phenomenon occurs because technicians may inaccurately estimate the refrigerant required or overcharge the system during a repair.

Prevention: The system consistently depends on trained professionals to recharge it and ensure that the appropriate refrigerant quantity is added per the manufacturer’s specifications.

Overheating as a Result of Low Refrigerant Levels

The compressor and other components may overheat as the system works harder to chill the space when refrigerant levels are low. This additional tension may result in cracking and leaks in the refrigerant lines.

This phenomenon occurs because low refrigerant levels may result from a pre-existing minor malfunction, and the system may sustain more severe damage if it is operated under these circumstances.

Prevention: Resolving low refrigerant levels promptly is imperative to prevent additional damage. If you observe a decrease in system performance, it is recommended that you have the system inspected for leakage before the issue escalates.

Faulty Connections or Joints

The junctions and connections between refrigerant lines and system components are frequently the sites of leaks. Refrigerant may escape if these connections are not securely fastened or become unfastened over time.

This phenomenon occurs because joints and connections may become lax due to vibrations, temperature fluctuations, or improper installation.

Prevention: It is crucial to ensure that connections are securely fastened during installation and to conduct routine maintenance inspections. If the system is subject to extensive use, it is recommended that these points be inspected more frequently. 

Symptoms of a Refrigerant Leak

Early detection of a refrigerant escape can avert more severe complications. Several indicators warrant attention:

• Reduced Cooling Efficiency: If your refrigerator or air conditioner is not cooling as efficiently as it once did, a refrigerant leak may be a problem.
• Hissing or Bubbling Sounds: If you hear unusual sounds emanating from your HVAC system, it may indicate the presence of a leak.
• Frozen Coils: Poor cooling performance can result from leaks in your system’s evaporator coils.
• Increased Energy Consumption: A system deficient in refrigerant must operate more vigorously to preserve the desired temperature, increasing energy consumption.

Are refrigerant leaks hazardous to equipment?

In addition to health and environmental concerns, refrigerant escape can damage your HVAC system. When the refrigerant is insufficient, the system must operate at a higher level, which results in increased wear and strain. This can lead to compressor failure, a costly repair or replacement as time progresses.

Immediate Actions to Take When a Leak is Suspected

It is crucial to act promptly if you suspect a refrigerant leak:

• Deactivate the system: Continued air conditioner or refrigerator operation with a refrigerant discharge may damage the system further.
• Consult an expert: Refrigerant leaks should be addressed exclusively by certified HVAC technicians with the equipment and expertise to locate and remedy the leak safely.
• Avoid contact: If refrigerant has escaped into space, ventilate the area and avoid direct contact with the gas.

Preventive Measures to Avoid Leaks

The efficacy of HVAC systems can be reduced, and expensive repairs and adverse environmental and health effects can result from refrigerant leaks. It is crucial to implement proactive measures to prevent the occurrence of breaches. The following are some effective preventive measures:

Consistent Inspections and Maintenance

Conducting routine maintenance is essential to detect potential issues before they escalate into significant problems. A certified HVAC technician can inspect the system’s components, clean coils, check refrigerant levels, and guarantee the system’s functionality.

• What should be verified: Examine the connections, refrigerant lines, and coils for any indications of corrosion or wear.
• Regularity: It is recommended that your system undergoes a professional inspection at least once annually.

Appropriate Installation

Ensuring your HVAC system is installed correctly can prevent various issues, such as refrigerant leakage. Poor installation can result in faulty components or loose connections, which increases the likelihood of leakage.

Employ certified professionals: Ensure that your HVAC system is installed by HVAC technicians who are licensed and trained according to industry standards.

Safeguard Refrigerant Lines

Physical impacts or vibrations can damage refrigerant lines over time. Shielding and insulating these lines from external injury can prevent leaks.

• Incorporate insulation: Use appropriate insulation to protect refrigerant lines from extreme temperatures and impact.
• Lines of security: Ensure that the refrigerant lines are securely affixed to prevent vibration-induced wear.

Employ High-Quality Components

Low-quality or inexpensive components, such as valves or joints, are more likely to fail over time, resulting in refrigerant escapes. Invest in high-quality parts to ensure the longevity of your HVAC system.

Prioritize durability: Select materials resistant to corrosion, particularly for outdoor structures subjected to the elements.

Monitor the Refrigerant Levels

Monitor the refrigerant levels in your system. This enables early detection of leaks before substantial damage occurs.

Utilize sophisticated technology: Certain systems have sensors that detect refrigerant levels and notify you of potential breaches.

Prevent Coil Corrosion: Exposure to formic acid and other airborne compounds can cause evaporator coils to corrode over time. The tenure of coils can be extended by applying a protective coating or utilizing corrosion-resistant materials.

Protective coatings: To mitigate the risk of corrosion, your technician should apply a protective coating to the evaporator coils.

Address Leaks Without delay

Act promptly if you suspect a refrigerant escape. Addressing the issue promptly can prevent additional system damage and costly repairs.

Engage professionals: Handling refrigerant and repairing leaks should be limited to certified HVAC technicians.

Stabilize the System to Reduce vibration.

Excessive vibration may wear out refrigerant lines and connections. The BalVibratione system, mainly the compressor and fan, will reduce tension and extend the lifespan of the components.

Inspect components: Ensure that fans, compressors, and other components are balanced to minimize extraneous vibrations.

Guarantee Proper Airflow

The evaporator coils may freeze and exert additional pressure on the system due to restricted airflow, which may result in leakage. Ensure the ductwork is maintained, filters are replaced regularly, and vents are kept clear to facilitate healthy ventilation.

Replace or clean air filters: Dirty filters may cause obstructed ventilation and leaks, which can cause the system to overwork and develop leaks.

Implement Leak Detection Technology

Modern HVAC systems can be equipped with leak detection technology, which monitors refrigerant levels and notifies you when a leak occurs. This early detection has the potential to avert severe damage.

Consider investing in intelligent systems: searching for systems with leak detection sensors that automatically alert you to potential issues. 

Conclusion

Refrigerant emissions can be hazardous to the environment and human health. If not promptly resolved, it may result in costly repairs. You can mitigate these hazards by routinely maintaining your HVAC system and being aware of the signs of a leak. If you suspect a coolant or refrigerant escape, you must prioritize safety by disconnecting your system and contacting a qualified professional. 

Professional Guidance on the Management of Refrigerant Leaks

If neglected, refrigerant leakage can result in environmental damage, health hazards, and expensive repairs. We at Leak Detection Las Vegas are experts in the timely and efficient resolution of refrigerant leaks to guarantee your property’s and the environment’s safety. It is essential to take immediate action if you have observed any of the following: decreased cooling efficacy, unusual noises, or increased energy bills. Our team of certified professionals is proficient in detecting refrigerant leakage, regardless of whether it results from corroded coils, damaged lines, or faulty components. 

For additional information on related subjects, read our previous blog post, “Is a Leaking Water Heater Dangerous?“

Early intervention can prevent substantial damage and guarantee the efficient operation of your HVAC system. Do not delay until the issue escalates. Contact us today to safeguard your home and the environment for comprehensive repair solutions and expert assistance with refrigerant leaks.