Remote Capable Emergency Lights – Centralized Power for Extended Coverage

Remote Capable Emergency Lights

Remote capable emergency lights use oversized internal batteries to power their own lamp heads and one or more remote fixtures for at least 90 minutes, meeting UL 924 and NFPA 101 life-safety codes. This centralized approach extends egress coverage from a single battery source and simplifies maintenance. Explore all UL 924 emergency lights.

Remote Head Support UL 924 Compliant 90-Min Backup LED Illumination Self-Testing
Buyers Guide Tips

What to Look for in Remote Capable Emergency Lights

  • Remote capacity (watts): Verify total remote-head wattage the unit can support and ensure 90-minute runtime with on-board heads + remotes.
  • Remote circuit voltage: Match remote heads to the unit’s output (e.g., 3.6 V / 6 V / 12 V) and confirm polarity/connector style.
  • Cable runs & voltage drop: Size conductor gauge and limit run length so remote heads receive required voltage at load—check manufacturer tables.
  • Circuit count & zoning: Plan remote circuits by corridor/area for easier testing and future service; label junctions and terminations clearly.
  • Head compatibility: Match lumen output, wattage, and beam pattern of remote heads to spacing needs; use wet-location or vandal-resistant heads where required.
  • Aim & photometrics: Use adjustable optics and lay out for ≈ ≥1 fc average and ≥0.1 fc minimum along the egress path at 90 minutes.
  • Batteries: Maintenance-free Ni-Cd or lithium; confirm capacity (Ah), recharge time, ambient range, and expected service life for maintenance planning.
  • Electronics: Universal 120/277 VAC input, brownout protection, low-voltage disconnect, status LED, and accessible test switch (local or remote).
  • Self-testing: Prefer diagnostics that automate monthly/annual tests and indicate faults for on-board heads and remote circuits separately if available.
  • Environment & rating: Specify damp/wet-location housings, heater options for cold spaces, and corrosion-resistant hardware for industrial areas.
  • Mounting & service: Ensure clear access to battery/charger; provide junction boxes for remote taps and strain relief on conduit runs.
  • Documentation: Keep a one-line diagram noting remote watt loads, run lengths, conductor sizes, and test results for inspections.

Ideal for stair towers, long corridors, warehouses, and open-plan facilities, remote-capable units reduce the number of self-contained fixtures you need. A single battery-powered chassis can drive multiple low-voltage remote emergency lighting heads placed along the egress path—streamlining wiring runs, inspections, and ongoing service.

Most models include high-efficiency LED heads, sealed Ni-Cd or lithium battery packs, and dual-voltage (120/277 VAC) input. Adjustable optics allow targeted illumination, while weather-resistant housings and wet-location emergency light ratings support covered outdoor or industrial areas. For automated code checks, choose self-testing emergency lights that handle monthly and annual diagnostics for you.

💡 What is a remote capable emergency light?
A self-contained emergency light with extra battery capacity designed to power external remote lamp heads—extending illumination across wide or complex egress paths from a single fixture.

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Remote Capable Emergency Lights – Spec Guide

  • Remote capacity (watts): Confirm total remote-head wattage the unit supports and verify 90-minute runtime with on-board heads plus remotes attached.
  • Remote circuit voltage: Match remote heads to the output voltage (e.g., 3.6 V / 6 V / 12 V) and observe polarity/terminal conventions.
  • Wiring & voltage drop: Size conductors and limit run lengths so heads receive required voltage at load; follow manufacturer voltage-drop tables for each circuit voltage and wattage mix.
  • Circuit count/zoning: Use separate remote circuits by corridor/area to simplify testing, isolation, and future maintenance; label junctions and terminations clearly for inspections.
  • Head compatibility: Align remote head wattage, lumen output, beam, and environment rating (damp/wet, vandal-resistant) with spacing and site conditions.
  • Egress photometrics: Lay out for ≈ ≥1 fc average and ≥0.1 fc minimum along the path at 90 minutes; adjust aiming/beam options accordingly.
  • Batteries: Maintenance-free Ni-Cd or lithium; check capacity (Ah), recharge time, ambient range, and expected service life for maintenance planning.
  • Electronics: Universal 120/277 VAC input, brownout protection, low-voltage disconnect, status LED, and accessible test switch (local or remote as required).
  • Self-testing diagnostics: Prefer units that automate monthly/annual tests and indicate distinct faults for on-board heads vs remote circuits if available.
  • Environment & rating: Specify damp/wet-location housings, corrosion-resistant hardware, and heater options for cold storage or exterior vestibules.
  • Mounting & service: Provide clear access to battery/charger; include junction boxes for remote taps and strain relief/conduit support along runs.
  • Documentation: Maintain a one-line showing remote loads, run lengths, conductor sizes, and measured test results for AHJ review.

FAQs About Remote Capable Emergency Lights

What is a remote capable emergency light?

It’s a fixture with extra battery capacity designed to power one or more remote emergency lighting heads in addition to its built-in lights.

How many remote heads can one unit power?

It depends on the fixture’s total output and the wattage of each head. Check the unit’s VA rating and calculate how many additional heads it can support.

Where are remote capable units typically used?

They’re ideal for large spaces, stairwells, corridors, warehouses, and multi-level facilities where distributed emergency lighting is needed.

Are these fixtures code compliant?

Yes. Remote capable models are UL 924 listed and meet NFPA 101 requirements for emergency egress illumination.

What’s the advantage of using remote capable fixtures?

They let you centralize battery backup in one location and extend coverage with small remote heads—reducing fixture count and simplifying maintenance.

Can they be used outdoors?

Many models are available with wet-location or NEMA 4X ratings for outdoor or harsh environments.