Folding Hearing Protection Earmuffs 30dB

Discover the APO44 Hearing Protection Headphones, specially designed for noisy environments and extreme situations such as shooting ranges. Commonly known as "ear muffs," these hearing protectors are designed to shield your ears from high-volume sounds, like those generated by ballistic discharges, without sacrificing voice clarity around you.

Key Features:

• 30dB Noise Reduction: APO44 earmuffs effectively reduce ambient sound by up to 30 decibels, protecting your hearing in extremely noisy environments.
• Clear Communication: Allow users to communicate easily, even in the presence of gunfire, making them ideal for use in shooting ranges and other high-noise settings.
• Robust and Effective Design: Made with high-quality materials for durable and effective hearing protection.
• Adjustable Headband: Made from lightweight and durable plastic, the headband easily adjusts for prolonged use without discomfort.
• Cushioned Sealing Rings: Offer effective isolation with low contact pressure, ensuring maximum comfort.
• Durable Construction: Externally made of fiberglass with a red lacquered finish. The interior features Heracustic filtering and hypoallergenic cushioning for added comfort and safety.
• Portability: Detachable and foldable earmuffs, easy to transport and store.

Additional Benefits:

• Safety and Comfort: Enjoy maximum hearing protection without sacrificing comfort, even during long periods of use.
• Quality Materials: The combination of fiberglass and plastic with metal guides ensures a robust and lightweight construction.
• Practical Design: The foldable and detachable design makes them easy to transport and store, ideal for professionals needing mobility.

Technical Specifications:

• Noise Reduction: 30dB
• External Material: Fiberglass
• Finish: Red lacquered paint
• Interior: Heracustic filtering
• Cushioning: Hypoallergenic
• Headband: Plastic with metal guides

Enhance your hearing protection with APO44 headphones, perfect for professionals seeking quality and efficiency in high-noise environments.