The Importance of Door Hardware Maintenance

 August 19, 2025 1 Likes 197 Views
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Door hardware plays a vital role in the safety, security, and functionality of any building. Whether it’s a school, office, hospital, or retail space, well-maintained door hardware ensures smooth operation, enhances security, and prolongs the life of your investment. Despite its critical role, door hardware maintenance is often overlooked until something goes wrong. Regular upkeep can prevent costly repairs, mitigate safety risks, and maintain compliance with building codes and standards.

Why Door Hardware Maintenance Matters

  1. Safety and Security
    • Faulty door hardware can compromise a building’s security. A misaligned latch, broken closer, or malfunctioning lock can provide easy access to unauthorized individuals or delay egress during emergencies.
    • Regular maintenance ensures panic hardware, exit devices, and locks function correctly, keeping occupants safe.
  2. Compliance with Codes and Standards
    • Building codes require specific types of hardware to be installed and maintained in certain environments. For instance, fire-rated doors must close and latch properly to maintain their fire-resistance integrity.
    • ADA compliance also hinges on properly maintained hardware that allows for accessible entry and exit.
  3. Cost Savings
    • Addressing minor issues before they escalate can save money. Preventative maintenance is less expensive than emergency repairs or full hardware replacements.
    • Well-maintained hardware reduces wear and tear, extending the life of the components.
  4. Operational Efficiency
    • Doors that don’t operate correctly can slow down traffic flow, causing frustration for employees, customers, or visitors.
    • Smooth-functioning hardware minimizes disruptions in daily operations.

Common Door Hardware Maintenance Tasks

  1. Inspection
    • Regularly check for loose screws, worn hinges, and damaged components. Inspect locks, exit devices, closers, and handles for signs of wear or malfunction.
  2. Cleaning
    • Remove dirt, grease, and grime from hardware to prevent build-up that can impede performance. Use manufacturer-recommended cleaning agents to avoid damaging finishes.
  3. Lubrication
    • Lubricate moving parts such as hinges, locks, and latch mechanisms to ensure smooth operation. Avoid over-lubricating, which can attract dust and debris.
  4. Alignment
    • Ensure doors are properly aligned within their frames. Misalignment can strain hardware components, causing premature failure.
  5. Testing
    • Periodically test panic hardware, door closers, and locks to confirm they’re functioning as intended. Ensure fire doors close and latch automatically.

Tips for Effective Maintenance

  • Create a Schedule: Establish a regular maintenance routine tailored to your building’s usage and environment.
  • Document Inspections: Keep detailed records of maintenance activities, inspections, and repairs.
  • Train Staff: Educate maintenance teams on the correct procedures for maintaining door hardware.
  • Partner with Professionals: Work with experienced technicians or hardware manufacturers for comprehensive inspections and repairs.

Conclusion

Investing time and resources into regular door hardware maintenance is essential for ensuring the safety, security, and functionality of your building. By addressing minor issues proactively, you can save money, comply with regulations, and provide a seamless experience for all occupants. Don’t wait for problems to arise—make maintenance a priority and keep your doors operating at their best.

Understanding Power Transfers: A Guide to Wiring Electrified Doors

 July 22, 2025 0 Likes 481 Views
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When it comes to electrified locks and exit devices, power transfers play a crucial role in ensuring seamless operation while maintaining security and aesthetics. Whether you’re planning new construction or retrofitting existing doors, selecting the right power transfer solution can make all the difference.

What Are Power Transfers?

Power transfers provide a means of running wires from the door frame to electrified door hardware such as locks, strikes, or exit devices. They come in various forms, each suited to specific applications and installation requirements.

Types of Power Transfers

  1. Surface-Mounted Power Transfers
    • Includes armored door cords or door loops.
    • Economical and easy to install on existing openings.
    • Ideal for field preparation in both retrofits and new construction.
    • Highly visible but durable, making them a practical choice for many applications.
  2. Concealed Power Transfers
    • Mortised into the door and frame for a clean, tamper-resistant installation.
    • Factory-prepared and approved for fire-rated openings.
    • Best for heavy-traffic environments or areas requiring higher security.
  3. Electric Hinges
    • Provide a concealed and vandal-resistant method of running wires.
    • Fit into standard 4-1/2″ or 5″ hinge preparations with minor modifications for wire clearance.
    • Recommended for the center hinge position for optimal performance.
  4. Wireless Power Transfers
    • Use radio frequency (RF) transmitters to wirelessly transfer energy across the door gap.
    • Eliminate the need for drilling or conduit installation, making them ideal for retrofits, especially with wood doors.
    • Capable of transferring power and signals, including latch bolt monitoring and request-to-exit (REX) signals.

When Are Conduits Needed?

  • For electrical locks and strikes, a conduit or raceway is often recommended to run wires from the hinge-side preparation to the lock or strike preparation.
  • With electrical panic devices, most connections are through the hinge-side mounting, and no conduit is typically required in the door.

Benefits of Power Transfers

  • Aesthetic Appeal: Concealed power transfers maintain a clean look by hiding wires.
  • Durability: Heavy-duty options are designed to withstand frequent use in high-traffic areas.
  • Security: Concealed solutions reduce the risk of tampering or vandalism.
  • Ease of Installation: Surface-mounted and wireless options simplify retrofitting and field preparation.

Key Considerations

  • Always consult your Authority Having Jurisdiction (AHJ) to ensure compliance with fire-rated opening requirements.
  • For high-security or heavy-traffic environments, prioritize concealed or heavy-duty power transfers to enhance durability and tamper resistance.
  • For retrofits, consider wireless options to save time and avoid invasive installations.

Conclusion

Power transfers are the unsung heroes of electrified door systems, ensuring reliable power delivery while maintaining security and aesthetics. By understanding the types and applications of power transfers, you can choose the right solution for your project, whether it’s a high-security facility, a retrofit, or a new construction.

For more information or assistance with selecting the ideal power transfer for your needs, feel free to reach out to our team.

The Basics of Break-In Prevention: Securing Your Facility

 June 26, 2025 1 Likes 374 Views
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No facility is completely impervious to break-ins, but with the right security measures in place, you can make it much harder for burglars to succeed. The goal of break-in prevention is not to guarantee a completely secure building but to delay unauthorized entry long enough for law enforcement or security personnel to respond. Even if your building hasn’t experienced any recent security threats, regular evaluations and upgrades to its protective measures are essential.

Here’s a back-to-basics guide on how to fortify your facility’s entry points and deter potential break-ins.

1. Start with a Heavy-Duty Door

The foundation of a secure entry point starts with the door itself. Even the strongest locks and security features will be ineffective if the door is weak.

  • Material Matters: Choose a door made of thicker material—16-gauge steel doors and frames are significantly stronger and more resistant to break-ins than their 20-gauge counterparts.
  • Reinforcement: Your door should be reinforced to properly support security hardware like locks and bolts. Be sure to consult with a door security distributor or integrator to ensure compatibility and durability.

2. Use a Full-Length Hinge

In commercial settings, doors must swing outward to comply with egress codes, leaving the hinge knuckles exposed and vulnerable.

  • Why Full-Length Hinges?
    • Support: Full-length hinges provide better support for heavy-duty doors compared to standard discrete hinges.
    • Resistance to Tampering: Continuous hinges are much more difficult for potential intruders to manipulate or vandalize. Upgrading to a full-length hinge significantly boosts your door security.

3. Invest in High-Strength Locks

The lock is your first line of defense, so its strength should never be overlooked.

  • Pull Force Resistance: Choose locks that can withstand at least 10,000 pounds of pull force.
  • Deep Bolt Penetration: Ensure your locks have deep bolt penetration into the door frame for maximum security.
  • Floor Bolts: Adding a bolt that locks into the floor helps prevent burglars from prying the bottom of the door upward, a common tactic used in break-ins.

4. Install a Burglar Alarm

A robust alarm system can be a strong deterrent against intruders. Alarms alert authorities and make your facility a less attractive target. When paired with strong door hardware, alarms create a multi-layered security approach that is both proactive and responsive.

Layering Security for Maximum Effect

The most effective security comes from combining these elements:

  • Heavy-duty doors
  • Full-length hinges
  • High-strength locks
  • Alarm systems

Together, these components work to:

  • Delay or prevent unauthorized access
  • Deter intruders from targeting your facility

Conclusion

Break-in prevention is all about implementing strong, well-maintained hardware and a layered approach to security. Even small upgrades, like replacing standard hinges with full-length ones or adding a floor bolt, can greatly enhance the safety of your building.

If you’re ready to take the next step in securing your facility, contact our team for guidance on how to improve your security systems. Together, we can build a safer, more secure environment for your business.

Panic Exit Devices vs. Fire-Rated Exit Devices: What’s the Difference?

 June 3, 2025 0 Likes 783 Views
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Exit devices play a crucial role in ensuring safety during emergencies, but not all are created equal. While panic exit devices and fire-rated exit devices may look similar, their purposes and applications differ significantly. Understanding these distinctions is key to selecting the right hardware for your building’s needs.

advantex 10 series rim device / request to exit device / latch bolt monitor

What Are Panic Exit Devices?

Panic exit devices, often called crash bars, push bars, or simply exit devices, are designed to allow quick and easy egress during emergencies. They operate by releasing a latch when pressure is applied to a horizontal bar or pad in the direction of exit travel.

Key Features:

  • Ease of Use: The device unlocks the door with minimal force (15 pounds or less).
  • Coverage: The push bar or pad must extend at least half the width of the door.
  • Application: Required by the International Building Code (IBC) for certain buildings, including:
    • Educational and assembly facilities.
    • High-hazard occupancies.
    • Electrical or battery rooms.
  • Relocking: While panic exit devices can re-latch when the door closes, re-latching is not mandatory.

Purpose:

Panic exit devices prioritize speed and simplicity, enabling occupants to exit safely during emergencies, such as a fire or other life-threatening situations.

fire rated exit control lock

What Are Fire-Rated Exit Devices?

Fire-rated exit devices serve a dual purpose: providing quick egress while also maintaining the integrity of a fire-rated door assembly. These devices are designed for doors that help compartmentalize a fire, slowing its spread and allowing more time for evacuation and emergency response.

Key Features:

  • Fire-Rated Doors: Used on doors within fire-rated walls, such as:
    • Stairwell doors.
    • Doors to common hallways.
    • Doors within separation walls.
  • Re-Latching: Fire-rated exit devices must re-latch automatically when the door closes, ensuring the door remains securely closed during a fire.
  • Industry Testing: These devices must pass rigorous testing to confirm they can secure the door during a fire.
  • Time Rating: Must bear a label indicating the fire rating, typically ranging from 20 minutes to 3 hours.
  • No Mechanical Dogging: Fire-rated devices cannot be mechanically dogged (held in the open position), though electric dogging is permitted.

Purpose:

Fire-rated exit devices are critical for life safety and property protection, ensuring that fire-rated doors perform as intended to contain fire and smoke.

Key Differences Between Panic and Fire-Rated Exit Devices

FeaturePanic Exit DevicesFire-Rated Exit Devices
Re-LatchingOptionalMandatory
Fire ResistanceNot requiredMust pass fire-resistance testing
Mechanical DoggingAllowedNot allowed (electric dogging permitted)
Fire-Rated DoorsNot requiredRequired
ApplicationsGeneral emergency exitsFire-rated door assemblies

Choosing the Right Device

When selecting exit hardware, consider the specific requirements of your building and its safety codes:

  • Use Panic Exit Devices for doors in educational facilities, assembly spaces, or high-hazard areas where quick egress is the primary concern.
  • Use Fire-Rated Exit Devices for doors within fire-rated walls, such as stairwells and hallway separation doors, where fire containment is crucial.

Keep in mind that all fire-rated exit devices are also panic exit devices, but not all panic devices meet fire-rating requirements.

Conclusion

Understanding the difference between panic exit devices and fire-rated exit devices ensures that your building is both safe and compliant. By selecting the right hardware for each door, you can protect occupants, preserve property, and meet building code requirements.

Understanding Automatic Operators and the “Knowing Act”

 May 13, 2025 0 Likes 665 Views
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Automatic door operators play a vital role in providing accessible, convenient, and secure building entrances. Whether you’re retrofitting an existing door or planning for a new installation, understanding the differences between operator types and the importance of the “Knowing Act” is essential for compliance and safety.

Types of Automatic Operators

ada swing door thumbnail

Automatic operators generally fall into two categories:

  1. Low-Energy Operators
    • Purpose: Ideal for mixed-use doors that some users open manually while others activate automatically.
    • Standard: Governed by ANSI 156.19, which limits the speed and force of operation to ensure safety.
    • Activation: Requires a Knowing Act, where users consciously trigger the door using push buttons, touchless switches, card readers, or similar devices.
    • Applications: Common in schools, libraries, hospitals, and entrances designed for ADA compliance.
  2. Full-Energy Operators
    • Purpose: Designed for high-traffic areas where doors open and close quickly.
    • Standard: Governed by ANSI 156.10, which includes stricter safety measures like sensors and guard rails.
    • Activation: Triggered by motion sensors that detect movement near the door.
    • Applications: Grocery stores, retail outlets, and environments requiring rapid door movement.

The Knowing Act: Key to Low-Energy Operators

Low-energy operators must be activated by a “Knowing Act,” meaning the user makes a deliberate effort to trigger the door. This activation method not only complies with ADA standards but also limits potential risks by ensuring users are aware of the door’s operation.

4-1/2 inch square push plate for automatic operators

Common Knowing Act Devices:

  • Push Buttons: Available in various sizes and shapes, these can be mounted on walls, jambs, or bollards for easy accessibility.
  • Touchless Switches: Hands-free solutions that enhance hygiene and convenience.
  • Card Readers & Keypads: Ideal for secure facilities, providing both access control and activation.

Installation Guidelines for Knowing Act Devices

To ensure compliance with standards like ADA, ANSI 156.19, and ICC A117.1, follow these installation tips:

  • Mount the actuator within 1-12 feet of the door.
  • Position the device so users are not in the swing path of the door.
  • Ensure a clear floor space is available for wheelchair users, beyond the arc of the door swing.
  • Actuators must operate without requiring tight grasping, pinching, or twisting and should require a maximum force of 5 lbs.

Why Not Use Motion Sensors for Low-Energy Operators?

Adding motion sensors to a low-energy operator changes its classification to a full-energy opening under ANSI 156.10, which requires enhanced safety measures such as sensors and guard rails. These additions increase both the cost and complexity of the system, making Knowing Act devices a more practical solution for many applications.

Selecting the Right Operator for Your Needs

When choosing between low-energy and full-energy operators, consider the traffic flow, safety requirements, and compliance needs of your facility. For most ADA-compliant entrances, low-energy operators activated by a Knowing Act are sufficient, offering an accessible, cost-effective solution without compromising safety.

By understanding the nuances of automatic operators and their activation methods, you can ensure your building meets regulatory requirements while providing a seamless experience for users.

Understanding Windstorm-Rated Hardware: Protection Against Nature’s Fury

 April 23, 2025 1 Likes 788 Views
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windstorm icon

When it comes to safeguarding buildings and their occupants from extreme weather events like hurricanes and tornadoes, windstorm-rated hardware plays a crucial role. These specialized components are designed to protect against high-velocity winds and dangerous debris while maintaining structural integrity and functionality. Let’s explore the key distinctions and requirements for hurricane-rated and tornado-rated hardware.

Hurricane-Rated Hardware: Built for Sustained Storms

Hurricanes are among the most devastating natural disasters, with an average of 12 forming in the Atlantic basin each year. While storm surges are often the deadliest aspect, windborne debris accounts for much of the structural damage.

Hurricane-rated hardware is specifically designed to:

  • Prevent Debris Penetration: Protect buildings from windborne projectiles while maintaining the integrity of doors and their components.
  • Withstand High Velocity Hurricane Zones (HVHZ): Tested to endure sustained wind pressure and extreme conditions over long periods.

Guidelines and Testing

Hurricane-rated hardware must comply with the Florida Building Code (FBC), which sets stringent standards. Many coastal states adopt the FBC for their hurricane door requirements. Hardware is subjected to rigorous third-party testing, including:

  • Static Pressure Testing: Ensures hardware can withstand sustained wind pressure.
  • Debris Impact Testing: Verifies resistance to high-velocity projectiles.
  • Cyclical Pressure Testing: Simulates the stress of repeated wind gusts.

To meet FBC standards, all components—doors, frames, hinges, and exit devices—must bear visible windstorm rating labels. Importantly, the FBC recognizes component listings, allowing substitutions of products with equivalent ratings.

Tornado-Rated Hardware: Protecting Lives in an Instant

Tornadoes, while shorter in duration, are among the most violent natural events, with wind speeds reaching up to 250 miles per hour. In the U.S. alone, an average of 1,000 tornadoes are reported annually, making tornado-rated hardware vital in vulnerable regions.

The primary purpose of tornado-rated hardware is to:

  • Protect Occupants: Prevent extreme pressure differentials and block projectile debris.
  • Withstand Extreme Winds: Maintain integrity under short bursts of intense force.

Guidelines and Testing

Tornado-rated hardware adheres to FEMA 361 and ICC 500 standards, which outline stringent safety measures for tornado shelters. These products undergo comprehensive testing by third-party laboratories, including:

  • Static Pressure Testing: Ensures durability against extreme pressure differentials.
  • Impact Testing: Confirms resilience to debris impacts at speeds up to 100 miles per hour.

Unlike hurricane-rated systems, tornado-rated hardware is tested and certified as an assembly. This means the door, frame, and hardware must be supplied and installed together as a single unit to maintain compliance.

Key Differences Between Hurricane- and Tornado-Rated Hardware

FeatureHurricane-Rated HardwareTornado-Rated Hardware
PurposeLong-term protection from sustained winds and debris.Short-term protection from extreme winds and debris.
StandardsFlorida Building Code (FBC).FEMA 361 and ICC 500.
TestingStatic pressure, debris impact, and cyclical pressure.Static pressure and 100 mph impact testing.
ApplicationCan use component listings.Must be installed as an assembly.
MaterialsVarious materials.Steel doors only for FEMA 361 compliance.

Choosing the Right Windstorm-Rated Hardware

When selecting windstorm-rated hardware, consider the specific risks in your region. Coastal areas prone to hurricanes may prioritize FBC-compliant systems, while tornado-prone regions should invest in FEMA-rated assemblies for maximum protection.

By understanding the differences between hurricane- and tornado-rated hardware, building owners and facility managers can make informed decisions to safeguard lives and property.

Have questions about windstorm-rated hardware? Contact us to learn more about protecting your building against extreme weather events.

Understanding Grade 1 Panic Devices: What You Need to Know

 March 28, 2025 1 Likes 1039 Views
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If you’ve worked with door hardware, you’ve likely heard of Grade 1 panic devices. But what does “Grade 1” actually mean? More importantly, why should it matter to you or your facility?

What Do the Grades Mean?

The Builders Hardware Manufacturers Association (BHMA) establishes and maintains standards for the door hardware industry, including panic hardware. These standards ensure a consistent level of quality and performance. Panic hardware undergoes rigorous cycle tests to earn one of three grades, each reflecting its durability and reliability:

  • Grade 1: Must withstand at least 500,000 cycles
  • Grade 2: Must withstand at least 250,000 cycles
  • Grade 3: Must withstand at least 100,000 cycles

Grade 1 devices are the toughest, designed for the highest traffic and most demanding environments. Some manufacturers go above and beyond, testing their products well beyond the minimum requirements to ensure maximum durability.

What Makes Grade 1 Different?

As of the latest ANSI/BHMA standard (2020), the requirements for Grade 1 panic devices include a preloading test. This means the device is tested with a simulated real-world load before the cycle test begins.

In real-world scenarios, doors may experience additional force from:

  • Air pressure
  • Misaligned doors or frames
  • Installation issues

The preloading test applies a force equivalent to a net 20-22 pound-force (lbf) to mimic these conditions, making it more challenging for devices to pass. This ensures Grade 1 devices are not only durable but also effective under realistic conditions.

Why Does This Testing Matter?

Panic hardware must perform flawlessly in critical moments, so testing focuses on several key criteria:

  1. Operation
    The device must function consistently, whether in a lab or the field.
  2. Durability
    Grade 1 hardware is built to last, ensuring years of reliable use.
  3. Safety and Security
    These devices are tested to withstand:
    • Forced entry from the pull side.
    • Heavy push loads from the opposite side.
  4. Appearance
    Grade 1 devices resist corrosion, chemicals, and UV exposure, ensuring they maintain their finish over time.
advantex 10 series rim device / grade 1 panic device

Why Choose Grade 1 Panic Devices?

Grade 1 panic devices are ideal for high-traffic areas such as:

  • Schools and universities
  • Hospitals and healthcare facilities
  • Stadiums and arenas
  • Office buildings

Investing in Grade 1 hardware provides peace of mind, knowing that your exit devices are designed to withstand demanding conditions while maintaining the safety and security of occupants.

Conclusion

Choosing the right panic hardware isn’t just about meeting code requirements—it’s about ensuring durability, safety, and reliability for the life of your building. Grade 1 panic devices set the highest standard, delivering unmatched performance and peace of mind in even the most challenging environments.

When safety is non-negotiable, Grade 1 is the clear choice.

What You Need to Know About Exit Routes: A Guide to Compliance and Safety

 March 3, 2025 0 Likes 1804 Views
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In an emergency, a well-maintained exit route can mean the difference between chaos and a safe evacuation. Exit routes are not just a critical component of workplace safety—they’re also a legal requirement under the Occupational Safety and Health Administration (OSHA) standards. This blog post explains what exit routes are, their requirements, and how to ensure your building remains code-compliant.

What Is an Exit Route?

OSHA defines an exit route as a continuous and unobstructed path that allows occupants to travel from any point within a workplace to a safe location.

An exit route consists of three key components:

  1. Exit Access: The path leading to the exit.
  2. The Exit: The actual door or area, separated from other spaces, that provides safe passage during an evacuation.
  3. Exit Discharge: The portion of the route that leads outside to a street, open space, walkway, or refuge area.

Requirements for Exit Route Compliance

To ensure safety and compliance, exit routes must meet specific requirements:

  1. Unlocked Doors
    • Exit doors must be unlocked from the inside.
    • Devices or alarms on doors (e.g., delayed egress) must not restrict use in an emergency unless explicitly approved by your local Authority Having Jurisdiction (AHJ).
  2. Swing Direction
    • Exit doors must swing outwards in the direction of travel during an evacuation.
  3. Clear Width
    • The minimum width of an exit is 36 inches, with a clear opening of at least 32 inches.
    • The maximum width of a single opening is 48 inches, but exceptions allow for clear widths as narrow as 28 inches.
  4. Lighting and Signage
    • Emergency lighting and exit signs must be provided and adequate for individuals with normal vision.
  5. Permanent and Unobstructed Routes
    • Exit routes must be permanent, unobstructed by materials, equipment, or debris.
    • Chains, deadbolts, or dead-end corridors are prohibited.
  6. Accessible Exits
    • Exit routes must lead to a safe location, such as a street, refuge area, or open space with access to the outdoors.
  7. Fire-Rated Doors and Labels
    • Fire-rated exit doors require labeling from third-party agencies such as Underwriter Laboratories (UL), Warnock Hersey (WH), or Intertek Testing Services (ITS).

Special Considerations for Fire Exits

Fire exits are an essential part of many buildings, often located inside and not part of an external wall. Here are some critical rules for fire exits and fire exit devices:

  1. Projection Limits
    • Exit devices cannot project more than 4 inches from the door (per Section 1003.3.2 of the 2018 International Building Code).
  2. Fire Door Standards
    • Fire exits must be equipped with self-closing fire-rated doors that automatically re-latch or re-lock upon closure.
    • Fire exit devices must pass rigorous testing to prove their ability to keep doors secure during a fire emergency.
  3. Time Ratings
    • Fire exit devices must display a time rating from a third-party agency—typically 20 minutes, 45 minutes, 60 minutes, 90 minutes, or 3 hours.
  4. Dogging Mechanisms
    • Mechanical dogging (which prevents re-latching) is not allowed. However, electric dogging is permitted for fire-rated exit devices.

Did you know?
Many exit routes are overlooked during routine building inspections. Improperly maintained or obstructed exits can result in citations, fines, or worse—endanger lives in an emergency.

Maintaining Exit Route Compliance

To stay compliant and ensure safety:

  • Conduct regular inspections of all exit routes, ensuring they are clear and functional.
  • Verify that all exit devices meet the appropriate fire-rating standards.
  • Consult with your local AHJ to confirm compliance with jurisdiction-specific requirements.

Having proper exit routes is not just about meeting code—it’s about ensuring that everyone in your building has a safe path to escape during an emergency.

Need help with exit route hardware?

Contact us today for expert guidance on maintaining safe, compliant exit routes in your facility.

The Hidden Security Risk: What You Need to Know About Tailgating

 February 4, 2025 0 Likes 910 Views
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Tailgating, also known as piggybacking, is a common yet often overlooked security risk. It happens when an unauthorized individual gains access to a secured area by following closely behind an authorized person. While it can be as harmless as holding the door open for someone to be polite, it can also be as dangerous as an intruder exploiting this courtesy to breach your facility.

Why Tailgating Is a Threat

A man swipes his access control card and walks in a door while a woman waits to tailgate him into the secure building

Even a single instance of unauthorized access can put your business, employees, and sensitive information at risk. Whether it’s a malicious actor entering to commit theft or an unvetted individual compromising private data, the consequences of tailgating can be severe. That’s why addressing this security vulnerability is crucial for any organization that values safety and confidentiality.

How Tailgate Detection Systems Work

Tailgate detection systems enhance your access control by monitoring secured doorways. These systems typically use vertical rows of infrared beams to track the number of individuals passing through in one or both directions. If more people pass through than the access system recognizes, the system triggers an alert.

With customizable options, these systems can sound alarms locally or notify security teams remotely, ensuring a swift response without disrupting your workplace.

Where Tailgate Detection Makes an Impact

Tailgate detection systems are invaluable in a variety of industries, providing an extra layer of protection where it’s needed most:

  • Financial Institutions: Safeguard cash, vaults, and sensitive financial records.
  • Healthcare Facilities: Secure patient records, research labs, and pharmaceutical storage.
  • Pawn Shops & Sporting Goods Stores: Protect firearms and ammunition from unauthorized access.
  • Government & Law Enforcement: Control access to secure areas, records, and control centers.

Strengthen Your Security Today

Tailgating might seem like a minor oversight, but the risks it poses are anything but small. By integrating tailgate detection systems, you can secure your facility and prevent unauthorized access without sacrificing convenience.

Invest in peace of mind—because keeping your doors secure is about more than just locking them.

Understanding the Difference Between Fail-Safe and Fail-Secure Locking Devices

 January 17, 2025 0 Likes 1099 Views
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When choosing electrified locking devices for your facility, it’s essential to understand the difference between fail-safe and fail-secure options. These terms determine how a lock behaves during a power outage and play a critical role in access control and safety compliance.

Fail-Safe Locks: Unlocked Without Power

magnetic lock / fail-safe

A fail-safe locking device unlocks when power is lost. It requires power to remain locked, ensuring that in the event of a power outage, occupants can exit or access specific areas as needed.

Common Uses

  • Fire-Rated Stairwell Doors: Allows people in stairwells to seek refuge on certain floors and enables first responders to access necessary areas during emergencies.
  • Access-Controlled Interior Doors: In some jurisdictions, fail-safe locks are required to prioritize safety and accessibility.

Key Consideration

While fail-safe locks enhance safety during emergencies, they may compromise security by leaving doors unlocked during power outages.

Fail-Secure Locks: Locked Without Power

advantex electric dogging device / fail-secure

A fail-secure locking device remains locked when power is lost. It requires power to unlock, making it ideal for maintaining security during power outages.

Common Uses

  • Main and Employee Entrances: Ensures unauthorized individuals cannot enter the building without a key or access credential.
  • Perimeter Doors: Maintains security for exterior access points.

Key Consideration

While fail-secure locks provide better security, they require careful planning to ensure compliance with emergency exit requirements.

Choosing the Right Locking Device

Building Codes and Safety Regulations

  • Building codes require that occupants can always exit freely during emergencies, even if the doors are locked. This is why exit devices and fail-safe trims are commonly used on emergency exits.
  • Ensure you consult local regulations to determine whether fail-safe or fail-secure devices are required for specific doors.

Power Consumption

  • Fail-Safe Devices: Require continuous power to stay locked, increasing energy consumption and operating costs.
  • Fail-Secure Devices: Use power only during unlocking, making them more energy-efficient.

Security Needs

  • Use fail-secure locks for perimeter doors to prevent unauthorized access during power outages.
  • Consider fail-safe locks for doors that prioritize life safety, such as stairwells or emergency exits.

Specialized Solutions

Certain hardware products, like electric latch retraction exit devices, offer a hybrid approach:

  • Fail-Secure During Power Outages: These devices lock securely when power is lost.
  • Latch Retraction: Allows doors to operate easily during normal business hours.
  • Energy Efficiency: They consume power briefly during activation, minimizing energy costs.

Detex Products

ProductFail-Safe or Fail-Secure?During loss of power, product is…
Electric StrikeFail-Safe (Field Selectable)Unlocked
Electric StrikeFail-Secure (Field Selectable)Locked
Electromagnetic LockFail-SafeUnlocked
Electric Lever TrimFail-Safe (Field Selectable)Unlocked
Electric Lever TrimFail-Secure (Field Selectable)Locked
Electric Latch Retraction (ER EX)Always Fail-SecureLocked
Electric Dogging (ED)Always Fail-SecureLocked

Final Thoughts

Selecting the right locking device involves balancing security, safety, and operational efficiency. Fail-safe and fail-secure devices serve different purposes, so it’s essential to evaluate your facility’s needs and regulatory requirements before making a decision.

By understanding these options, you can ensure your building is both secure and compliant, no matter the situation.