bumping lock

Anti-bump Anti-drill Cylinders

At Prowler Proof, we prioritise your safety and security by selecting only the highest-quality hardware for our security screens, doors, and windows. We understand that every component of your security setup is crucial in ensuring your home remains protected. That’s why we include anti-bump, anti-drill cylinders in the Lockwood Kinetic Defence range with our security doors and security screen doors, safeguarding your entry points from sophisticated attacks.

So, what exactly is bumping?

Bumping is a method used by burglars to gain unauthorised access by manipulating the internal pin tumblers of a lock. This technique involves transferring energy to these pins to separate them, allowing the lock to turn with minimal force. With the rise of online tutorials and videos, bumping has become more widely known and poses a significant threat to traditional locking systems.

This is where anti-bump, anti-drill cylinders come into play. The Lockwood Kinetic Defence range features these advanced cylinders, designed to resist both bumping and drilling attacks. The anti-bump, anti-drill cylinders incorporate a unique set of driver pins and tight manufacturing tolerances to enhance security. These stainless steel driver pins have a specialised geometry that effectively counters the kinetic forces used in bump attacks. They maintain a firm grip inside the pin chamber, preventing the driver pin from being dislodged and compromising the cylinder.

In addition to our robust security doors and screens, we offer a range of security windows to ensure comprehensive protection for your property. To learn more about the Kinetic Defence technology and how it fortifies your security screen doors and other installations, visit ASSA Abloy’s website for detailed information and further insights.

Choose Prowler Proof for unparalleled protection with advanced security solutions that don’t cut corners.

Discover more from Prowler Proof

Subscribe now to keep reading and get access to the full archive.

Continue reading