LED Drivers – What You Need to Know

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Today there are more and more different kinds of LED lights and they all require drivers to make them work.

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Drivers come in all shapes, sizes and kinds. Choosing the right type of driver ensures safe, efficient, and long-lasting LED lighting. Knowing some basics about drivers can help you buy the right kind with confidence.

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The Ultimate Guide to LED Drivers: Types, Functions, and Applications

What Do LED Drivers Do?

LED drivers convert incoming AC power into the precise DC voltage and current that LEDs require—making them essential to safe and bright lighting.

Why the Right Driver Matters?

There are 3 main types of drivers; Constant Current(CV), Constant Voltage(CV), or Constant Power(CP). Using the right driver affects performance, safety, energy use, and emergency readiness.

Constant Current Drivers

The large majority of LED fixtures and settings call for the use of Constant Current drivers because they deliver stable light output and better thermal control.

During startup, the driver raises voltage until current flows through the LEDs. It then maintains that current—which keeps brightness steady and avoids overheating. This is what that process looks like if seen on a an electrical line diagram:

In reality, behind the cover of many light fixtures, you will often find strips of LED lights:

Be sure to choose a driver whose max power output(often listed in watts(W)) matches your fixture’s needs and whose voltage range(e.g., “24-54VDC”) covers the total LED voltage of your light fixture(e.g., 48VDC).

Benefits of using a constant current driver include consistent brightness and prevention of thermal stress—both help maximize LED lifespan. Put simply, your LEDs will be less likely to overheat and burn out prematurely.

Constant Voltage Drivers

For flexible or cut-to-length lighting—like LED tape lighting or strip lighting—Constant Voltage drivers (12V or 24V) are the smart choice. How do they work?

Internal circuitry allows Voltage to remain steady(typically at 12V or 24V), and the LED tape itself manages the current via built-in resistors.

Always match the driver’s voltage output with the corresponding voltage tape (12V or 24V). Also confirm the total taped length does not exceed the max wattage rating of the driver.

Example: A 24V, 30W driver can power 10 ft of 3W/ft tape (3W × 10 ft = 30W) and must be paired with 24V tape only(it will burn up the LEDs or just not work with 12V tape).

Constant Power Drivers

Emergency lighting requires intelligent power management—Constant Power drivers ensure predictable light for the full 90-minute code-compliant runtime in the event of normal power loss. These drivers automatically adjust current so that power remains constant, no matter the fixture’s voltage.

Emergency mode is all about consistency—not maximum brightness. Constant Power drivers deliver predictable illumination, conserve battery, and protect LEDs from overdrive.

That is why constant power drivers are the industry standard in emergency lighting—and the technology we use at ExitLightCo for our emergency driver product line.

(Link here to blog post “How to Buy the Right Emergency Driver?”)

Final Thoughts

LED technology is everywhere today, and understanding the different types of drivers helps you select the right solution for your project.

  • Constant Current = reliable performance for most fixed LED fixtures.
  • Constant Voltage = flexibility for LED tape and custom-length lighting.
  • Constant Power = essential for emergency backup lighting.

Need help choosing the right driver? Our team is here to help. Reach out to us at [email protected] and we’ll guide you to the best solution.

The Three Electrical Formulas Behind LED Drivers

At the heart of LED driver design are three simple electrical formulas:

  1. I=P÷V →    I Current (amps) = Power (watts) ÷ Voltage (volts)
  2. V=P÷I →          Voltage         =       Power       ÷ I Current
  3. P=V×I →           Power          =      Voltage      ×     I Current

These three formulas explain how the three different driver types work:

  • Constant Current (CC): The driver keeps I (Current) steady. Voltage adjusts automatically according to the LED load.
  • Constant Voltage (CV): The driver keeps Voltage steady. Current depends on how many LEDs or strips are connected, and the LEDs/tape resistors regulate it.
  • Constant Power (CP): The driver keeps P steady. It measures the voltage of the LED load, then adjusts current automatically so that total watts stay the same. (Original: They hold P steady and adjust I automatically depending on the fixture’s voltage.)

FAQ 

Q: Do LED drivers go bad? How long do they last?

A: Yes, drivers can fail over time due to heat, power surges, or component wear. A quality LED driver typically lasts 30,000–50,000 hours, which often matches the expected life of the LEDs themselves.

Q: How do I know if my LED driver is bad?

A: Common signs include flickering, dimming, buzzing, or LEDs not turning on at all. If the LEDs are intact but the light won’t power on, the driver is often the culprit.

Q: Can I use any LED driver with any LED fixture?

A: No. The driver type (CC, CV, or CP), voltage range, and current rating must match the fixture’s requirements. Using the wrong driver may cause the LEDs to fail prematurely or not work at all.

Q: What is the difference between an LED driver and a power supply?

A: All LED drivers are power supplies, but not all power supplies are LED drivers. LED drivers are designed to regulate current/voltage precisely, whereas a general DC power supply may not provide the protection LEDs need.

Q: What is a constant power LED emergency driver?

A: It’s a driver designed to supply a fixed wattage to a fixture during a power outage. This ensures predictable brightness and meets 90-minute emergency lighting code requirements.

Q: Can I power both 12V and 24V tape from the same driver?

A: No—use a driver that matches your tape’s voltage exactly to avoid damage or failure.

Q: Why are emergency drivers more expensive?

A: They include Constant Power control, battery backup, and safety features to ensure lighting stays functional during power loss.

Q: Do I need a constant current or constant voltage driver?

  • Use constant current for most fixtures with a fixed LED array (downlights, panels, high bays).
  • Use constant voltage for flexible applications like LED tape or modular strips.

Q: Can multiple LED fixtures share one driver?

A: Yes, but only if the driver’s voltage, current, and wattage ratings support the total load of all fixtures. This is common in tape lighting, but less common for independent fixtures.

Q: Why do some LED drivers have dimming wires?A: Dimming drivers let you control light output via 0–10V dimming, TRIAC, or DALI protocols. In emergency drivers, dimming wires are sometimes used to safely regulate current when switching to backup power.

A Sign That Swings???

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Introducing Our New LEDSW Swinging Exit Sign: Built to Withstand the Unexpected!

At The Exit Light Company, we take customer feedback seriously. Over the years, we’ve heard countless stories from customers frustrated with broken exit signs. Whether it’s due to accidental contact or intentional mischief; the result is the same: damaged exit signs and the need for costly replacements.

We knew something had to change. That’s why we are proud to introduce our newest innovation: the LEDSW Swinging Exit Sign. Designed to be as durable as it is functional, this new exit sign features a hinged, swinging design that allows it to move freely when hit, minimizing the risk of damage. Instead of breaking upon impact, the sign simply swings, absorbing the shock and returning to its original position. This unique design reduces maintenance costs, prevents downtime, and ensures your building remains compliant with safety regulations.

Key Features of the LEDSW Swinging Exit Sign:

  1. Swinging, Hinged Design: The most notable feature of our LEDSW exit sign is its specially designed hinge mechanism. This allows the sign to swing freely when bumped or slapped, significantly reducing the chance of breakage.
  2. Durability: Constructed from high-quality, impact-resistant materials, the LEDSW is built to withstand repeated impacts, making it ideal for environments prone to rough handling.
  3. Versatile Letter and Housing Options: To match various interior designs, we offer the LEDSW exit sign in two letter color options:
    • Red letters
    • Green letters
    Additionally, you can choose between two housing colors:
    • White housing
    • Black housing
  4. Energy Efficiency: Like all our LED exit signs, the LEDSW model is highly energy-efficient, using long-lasting LED technology to provide bright and clear illumination while keeping power consumption low.
  5. Easy Installation: The LEDSW exit sign is designed for simple installation, making it a hassle-free upgrade for any building.

Perfect for High-Traffic Areas: This new swinging exit sign is perfect for high-traffic environments, including:

  • Schools
  • Universities
  • Gyms
  • Warehouses
  • Retail stores

By reducing the risk of damage, our LEDSW exit signs help facility managers and property owners save on maintenance costs while ensuring their buildings remain safe and up to code.

Vandalism Resistant:

Designed with mischievous behavior in mind, the LEDSW Swinging Exit Sign is resistant to vandalism. Its swinging hinge mechanism makes it difficult to damage intentionally, ensuring that even if someone tries to tamper with it, the sign will remain functional and intact. This makes it an ideal choice for environments where vandalism is a concern.

Why Choose The Exit Light Company? At The Exit Light Company, we are committed to providing innovative, high-quality safety solutions. The LEDSW Swinging Exit Sign is a testament to our dedication to solving real-world problems with smart design and durable products. When you choose us, you’re not just buying a product—you’re investing in reliability and peace of mind.

Ready to upgrade to a smarter, more durable exit sign? Visit our product page for the LEDSW Swinging Exit Sign here and experience the difference for yourself!

Stay safe, stay compliant, and say goodbye to broken exit signs!

Understanding NEMA Ratings & NFPA 70 Classifications

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NEMA ratings and Class 1 Division 1 and 2 ratings are two different systems used to classify enclosures or areas based on their environmental and safety requirements, particularly when it comes to protection against hazards. Here’s a breakdown of each:

NEMA Ratings

NEMA (National Electrical Manufacturers Association) ratings classify electrical enclosures based on their ability to protect against various environmental conditions. These ratings focus primarily on physical protection from dust, water, and other foreign objects. Examples of NEMA ratings include:

  • NEMA 1: General-purpose indoor protection against dust and light.
  • NEMA 4: Protection against windblown dust and rain, splashing water, and hose-directed water; often used for outdoor applications.
  • NEMA 4X: Similar to NEMA 4, but also resistant to corrosion.
  • NEMA 6: Protects against occasional submersion in water.

NEMA ratings generally do not specifically address hazardous or explosive atmospheres, though some enclosures may be suitable for use in such environments depending on their design.

Class 1 Division 1 and 2 Ratings

The Class and Division system is a method used by the National Electric Code (NEC) and similar standards to describe hazardous locations where explosive or flammable gases, vapors, or dusts might be present. The focus here is on the likelihood of an explosive atmosphere being present in an area.

  • Class 1: Refers to locations where flammable gases or vapors are present.
  • Division 1: The hazardous substance (gas, vapor, or liquid) is present continuously or frequently under normal operating conditions. The risk is high, and explosive atmospheres are expected to be present.
  • Division 2: The hazardous substance is only present in abnormal conditions (e.g., an accidental release or equipment malfunction). The risk is lower compared to Division 1.

Class 1 Division 1 indicates a very high level of hazard since explosive or flammable gases are present most of the time. Class 1 Division 2 indicates a lower level of hazard where the risk is only during abnormal conditions.

Key Differences

  1. Purpose:
    • NEMA: Focuses on environmental protection (dust, water, corrosion).
    • Class/Division: Focuses on protection from hazardous or explosive atmospheres.
  2. Hazardous Environment:
    • NEMA: Does not explicitly deal with explosive hazards.
    • Class 1 Division 1 and 2: Explicitly indicates the presence of explosive gases or vapors.
  3. Use Cases:
    • NEMA: Suitable for non-hazardous areas and general protection.
    • Class 1 Division 1 and 2: Required for areas where explosive or flammable substances might be present.

In short, while NEMA ratings address protection against environmental factors, Class 1 Division 1 and 2 ratings focus on the safety of equipment in areas with explosive hazards. Equipment in hazardous locations often needs to comply with both NEMA and Class/Division requirements.

NFPA 70 NEC Hazardous Locations Classes, Divisions and Groups

cLASSDIVISIONGROUP
I –  Flammable gases or vapors may be present1 – Ignitable concentrations of hazards exist under normal operation conditions and/or where the hazard is caused by frequent maintenance or repair work or frequent equipment failure
2 – Ignitable concentrations of hazards exist under abnormal operation conditions		Group A – Acetylene
Group B – hydrogen, butadiene, ethylene oxide, propylene oxide and acrolein
Group C – Ethylene, cyclopropane and ethyl ether
Group D – Acetone, ammonia, benzene, butane, ethanol, gasoline, hexane, methane, methanol, methane, naphtha, natural gas, propane and toluene
II – Combustible dust may be present1 – Ignitable concentrations of hazards exist under normal operation conditions and/or where the hazard is caused by frequent maintenance or repair work or frequent equipment failure
2 – Ignitable concentrations of hazards exist under abnormal operation conditions		E – Combustible metal dusts: aluminum, commercial alloys and magnesium
F – Combustible carbonaceous dusts: carbon black, charcoal, coal and coke dusts
G – Other combustible dusts: Chemicals, flour, grain, plastic and wood
III – Easily ignitable fibers or flyings may be present1 – Ignitable concentrations of hazards exist under normal operation conditions and/or where the hazard is caused by frequent maintenance or repair work or frequent equipment failure
2 – Ignitable concentrations of hazards exist under abnormal operation conditions		N/A

NFPA 70 NEC Zone Classification System

The Zone Classification System serves as an alternative to the traditional Class and Division system, offering an American adaptation of the International Electrotechnical Commission’s (IEC) Zone system. This approach retains the wiring methods and protection techniques outlined in the NEC (National Electrical Code). Zones categorize the type of hazardous material—whether gas or dust—and assess the likelihood of its presence in ignitable concentrations in the surrounding atmosphere. Unlike the Class and Division system, which focuses on normal versus abnormal conditions, the Zone system is based on how frequently the hazardous material is present.

NFPA 70 NEC Hazardous Locations Zones
Gases, Vapors and Mists0 – Ignitable concentrations of flammable gases or vapors which are present continuously or for long periods of time
1 – Ignitable concentrations of flammable gases or vapors which are likely to occur under normal operating conditions; may exist frequently because of repair/maintenance operations or leakage; or equipment is operated in a manner that equipment breakdown/faulty operations could result in the release of ignitable concentrations of flammable gases or vapors and failure of the equipment
2 – Ignitable concentrations of flammable gases or vapors which are not likely to occur under normal operating conditions and if they do will only persist for a short period of time; or volatile flammable liquids, gases, or vapors are confined within closed containers/systems and can escape only as a result of an accidental rupture; or volatile flammable liquids, gases, or vapors are normally prevented by positive mechanical ventilation, but may become hazardous due to system failure
Dusts and Fibers/Flyings20 – Combustible dusts or ignitable fibers/flyings are present continuously or for long periods of time
21 – Combustible dusts or ignitable fibers/flyings are likely to occur under normal operating conditions; or may exist frequently because of repair/maintenance operations or leakage; or equipment is operated in a manner that breakdown/faulty operations could result in the release of ignitable concentrations of combustible dust or fibers/flyings and failure of the equipment
22 – Combustible dusts or ignitable fibers/flyings are likely to occur under normal operating conditions; or may exist frequently because of repair/maintenance operations or leakage; or equipment is operated in a manner that breakdown/faulty operations could result in the release of ignitable concentrations of combustible dust or fibers/flyings and failure of the equipment
Group defines the type of hazardous material and partly the location of the surrounding atmosphere .

NFPA 70 NEC Hazardous Location Groups

Group IGroup IIGroup III
Mines susceptible to firedamp (flammable mixture of gases naturally occurring in a mine)Explosive gas atmospheres other than mines susceptible to firedamp – Group II equipment is subdivided into three subgroupsExplosive dusts – Group III equipment is subdivided into three subgroups
A – Atmospheres containing acetone, ammonia, ethyl alcohol, gasoline, methane, propane, or gases/vapors of equivalent hazardA – Atmospheres containing solid particles and fibers greater than 500 microns that could be suspended in air and settle out
B – Atmospheres containing acetaldehyde, ethylene, or gases/vapors of equivalent hazardB – Atmospheres containing combustible dusts other than combustible metal dusts
C – Atmospheres containing acetylene, hydrogen, or gases/vapors of equivalent hazardC – Atmospheres containing combustible metal dusts

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Understanding DC (Dual Circuit) Operation Types

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Dual Circuit Exit Signs
Dual circuit exit signs are designed without a battery and operate using two independent power circuits, each connected directly to external power sources. These signs rely solely on these power circuits, without any internal battery backup.

Key Features:

Two Independent Power Circuits:

  • The exit sign is connected to two separate power circuits within the building’s electrical system.
  • If one circuit fails, the second circuit provides power, ensuring that the sign remains illuminated.

No Internal Battery:

  • Unlike traditional exit signs with a battery backup, these signs do not have a battery to provide emergency power.
  • The absence of a battery means that the exit sign requires a reliable secondary power source to function in case of a power failure.

Automatic Power Transfer:

  • The sign is designed to automatically switch to the secondary circuit if the primary circuit loses power.
  • This transfer happens seamlessly without the need for any manual intervention.

Dependence on Building Power Systems:

  • Dual circuit exit signs without batteries depend entirely on the building’s electrical infrastructure.
  • They are usually integrated into buildings that have emergency power systems, such as a generator, inverter systems or an uninterruptible power supply (UPS), to provide power in case of a main circuit failure.

Benefits:

Reduced Maintenance: Without a battery to maintain or replace, these exit signs require less frequent maintenance.

Cost-Effective: Eliminating the need for a battery can reduce the overall cost of the sign and maintenance expenses.

Reliable in Certain Installations: They are most effective in buildings that have robust and reliable backup power systems, such as those with emergency generators.

Limitations:

Dependence on Backup Power Systems: The exit sign will only function during a power outage if the building’s emergency power systems are operational.

Not Suitable for All Applications: In buildings without reliable emergency power, a battery-backed exit sign is often a better choice to ensure illumination.

Typical Uses:

Large Commercial Buildings: Where there is a reliable backup power supply or emergency generators.

Hospitals, Airports, and Industrial Facilities: Where a consistent and monitored emergency power system is already in place.

In summary, dual circuit exit signs without batteries are designed for environments that have dependable external emergency power systems. They provide a reliable solution without the need for battery maintenance but depend entirely on the building’s backup power infrastructure to operate during outages.

LED Drivers vs Fluorescent Ballasts

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Understanding the Difference

When upgrading or designing a lighting system, it’s essential to understand the technology behind the fixtures you’re installing. Two critical components of lighting systems that often get compared are LED drivers and fluorescent ballasts. While they both serve the purpose of powering lights, they work in fundamentally different ways due to the distinct technologies they support. Let’s break down the differences to help you make more informed decisions when it comes to your lighting needs.

What is a Fluorescent Ballast?

A fluorescent ballast is an electrical device that regulates the current to fluorescent lamps. It ensures that the lamp receives the right amount of power to start and stay illuminated without consuming too much energy or burning out prematurely.

Here’s how it works:

Starting the Lamp: Fluorescent lights require a high initial voltage to ionize the gas within the tube. The ballast supplies this voltage at startup. – Current Regulation: Once the lamp is on, a ballast controls the electrical current flowing through the light. Without it, the light could draw too much current and burn out quickly.

Ballasts come in two varieties:

Magnetic Ballasts: These older types use an electromagnetic coil to regulate current, often resulting in flickering lights and audible humming. They are less energy-efficient and are being phased out in favor of more modern technology. – Electronic Ballasts: These are more efficient and use electronic components to regulate current more precisely, eliminating flickering and reducing energy consumption.

What is an LED Driver?

An LED driver is a device that regulates the power supplied to an LED (Light Emitting Diode). Unlike fluorescent lights, LEDs run on low-voltage direct current (DC), which is why an external driver is necessary to convert the high-voltage alternating current (AC) from the mains supply into the required DC voltage.

Here’s how LED drivers function:

Current Regulation: LEDs are sensitive to changes in current. Too much current can damage the diodes, while too little can cause them to underperform. The LED driver ensures the right amount of current flows through the LED to produce consistent, reliable light. – Voltage Conversion: Drivers convert high-voltage AC power from the mains to a lower voltage, typically between 2-4V DC for the LEDs.

There are two main types of LED drivers:

Constant Current Drivers: These deliver a consistent current to the LEDs, adjusting voltage as needed to maintain proper operation. – Constant Voltage Drivers: These supply a consistent voltage and rely on additional circuitry to control current.

Key Differences Between LED Drivers and Fluorescent Ballasts While both LED drivers and fluorescent ballasts regulate power, the type of lighting technology they support leads to a few fundamental differences:

FeatureFluorescentLED Driver
Power ConversionControls AC current for fluorescent lampsConverts AC to DC for LEDs
Type of CurrentAlternating Current (AC)Direct Current (DC)
Starting VoltageProvides a high voltage to start the lampNo need for high starting voltage
EfficiencyGenerally, less efficientHighly efficient
CompatibilityDesigned for use with fluorescent tubesSpecifically for LED lighting
DurabilityProne to flickering, lower lifespanLong-lasting, consistent performance

Why the Difference Matters

The key takeaway is that LED drivers and fluorescent ballasts are designed for entirely different lighting technologies. Fluorescent lamps rely on ballasts to ignite and regulate the electrical current necessary for operation, while LED lights need drivers to convert power and maintain efficient performance. As lighting technology advances, LEDs are becoming the preferred option due to their energy efficiency, longevity, and overall performance, and understanding the role of LED drivers in this process is crucial.

If you’re considering an upgrade to your lighting system, transitioning to LED lighting with compatible LED drivers offers substantial long-term benefits, including lower energy costs and fewer replacements compared to traditional fluorescent lights.

Final Thoughts

Choosing between LED lighting and fluorescent lighting means understanding the crucial differences between their supporting components—LED drivers and fluorescent ballasts. While both regulate electrical flow, their application and technology differ significantly. With LEDs becoming more popular for their efficiency and performance, understanding how LED drivers work will help you ensure your lighting setup is optimized for the future.

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A Look at LiFePO4 Batteries and Some Exciting New Products from The Exit Light Co

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The Exit Light Co has recently released four new products containing LiFePO4 batteries.

  • The EL-THO, a high-output, low-profile LED emergency light, packing a walloping 600 lumens per head. Includes a remote head capable option.
  • The BRAND NEW EL-SBHO, a super bright, emergency light. A powerful lighting choice with 1590 lumens. Includes a self-testing option and adjustable lamp heads.
  • The newest member of our stylish architectural line, the EL-DEC.  This light features two operation modes: Photocell mode automatically activates the light when lighting is low and deactivates it when exposed to sufficient light. In Wall Switch mode, users can manually control the light using a switch.
  • We can’t forget our ever-popular weatherproof emergency light, the EL-WETLED. Two models contain the LiFePO4 battery; the cold weather unit with an internal heater and the new self-testing, high-output model.

What is a LiFePO4 battery?

LiFePO4 is a lithium-iron phosphate battery. These batteries share traits with other lithium-ion batteries with some notable differences.

Why choose LiFePO4 batteries?

Aging and Cycle-life Characteristics: LiFePO4 batteries, or LFPs, boast a significantly extended cycle life compared to other lithium-ion formulations, meaning the batteries can withstand more discharges and charges. Under typical conditions, it supports more than 3,000 cycles, and under optimal conditions, it supports more than 10,000 cycles. In comparison, NMC batteries support about 1,000 to 2,300 cycles. LFP cells also experience a slower rate of capacity loss, meaning they last longer.

Safety: Stories of exploding electrical scooters, laptop chargers igniting, and five-alarm fires have many concerned about the safety of lithium-ion batteries. LiFePo4 batteries have a different formulation and are lithium-iron phosphate batteries. This formulation is fire-safe and very resistant to overheating. These batteries are also equipped with an integrated safeguarding mechanism, referred to as a battery management system (BMS), which prevents overcharge, over-discharge, and short-circuiting.

Operational Temperature: These batteries operate at a wide range of temperatures, making them suitable for most emergency lighting applications. Generally, LiFePO4 batteries can operate at a temperature between -4°F and 140°F. Optimal performance is achieved between 32°F and 113°F. Please note: Operational temperature will depend on the specific battery and its design. It is not recommended to charge the battery when it’s at or below freezing. This will permanently damage the battery. Some batteries have internal heaters to operate in freezing temperatures.

In review, LiFePO4 batteries are a safe, reliable and longer lasting alternative to both nickel cadmium (Ni-Cd) and lithium ion (Li-Ion) batteries. As lighting and battery technologies progress, it makes for an energy efficient and safer future in life safety products.

ADA History- The Journey to Our Present

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Recently, The Exit Light Co has introduced our own line of ADA signs to fill this important role in the market. Made with top quality materials and adhering to code-mandated requirements, it seemed like a natural extension of our life-safety product offering. Here is a brief history of the ADA sign.

The signing of the Americans with Disabilities Act had a dramatic impact on the lives of millions of Americans. Before its introduction, many people struggled to access basic services. Buildings, sidewalks, restrooms, and public transit proved to be difficult to navigate or, for some, completely unusable.

Section 504

The Rehabilitation Act of 1973 was the first federal civil rights protection law for people with disabilities. Section 504 prohibits discrimination against individuals with disabilities under any programs receiving federal funding. Prior to its introduction, some children were completely excluded from schools. This law has a notable impact on public education opportunities to this day. Nevertheless, many Americans still could not access businesses that serve the public such as churches, theaters, restaurants, hotels, gyms, private schools, and shops.

Americans with Disabilities Act

For decades activists fought for increased rights and to uphold those granted under 504.  The ADA bill was first introduced in 1989. Activists became frustrated when the bill was stalled. On March 13, 1990 over 1,000 people marched from the White House to the U.S Capitol in protest. In a powerful display, about 60 of the participants then abandoned their wheelchairs and mobility devices to crawl up the 83 steps leading to the Capitol. This became known as the “Capitol Crawl” and helped push legislation forward. A few months later the bill was signed into law.

Our World Today

The ADA changed the way our world is built. Ramps, elevators, sidewalks, public transit, and restrooms have all been adjusted to ensure everyone has access. Public communications now include interpreters and closed captioning. This law also opened up jobs for many Americans by prohibiting discrimination against qualified individuals with disabilities in the workplace.

Today publicly accessible buildings include signs designed to help the visually impaired navigate public spaces. These signs include raised lettering, Braille, and sometimes a pictogram. They help those with and without visual impairments to locate, offices, restrooms, stairs, and much more.

Click here to see our line of ADA compliant signs.

A Brief History of the EXIT Sign

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They are everywhere! “EXIT Signs” are so ubiquitous that most people rarely ever pay attention to them. Even so, all public buildings (restaurants, offices, and even large residential buildings like hotels or multi-unit condos) are required to have emergency lighting and exit signage to clearly illuminate egress locations and provide well-lit, easy to follow direction to them. In the event of an emergency, when every second counts, they provide a potentially life-saving path to quickly get out of the building.

Yet these signs did not exist a little over 100 years ago. It took a deadly industrial accident, one of the worst in American history, to bring about the changes to code and regulations resulting in the EXIT sign.

On March 25, 1911 a fire burst out in the Triangle Shirtwaist Factory, located on the 8th, 9th, and 10th floors of the Asch building in the Greenwich Village neighborhood of New York City. This event would go down in history as one of the deadliest fires ever, with 146 garment workers losing their lives. 

Many of those who died fell or leapt to their deaths, being unable to get out of the burning areas of the building. It turned out that the stairwell doors had been padlocked, a common practice of the times, to discourage employees from stealing product or leaving early.

The resulting media coverage and public outcry led to the establishment of new fire safety regulations including new standards regarding building egress.

Following the recommendations of the state commission, the National Fire Protection Association (NFPA) ratified codes for the first Exit signs. The NFPA had been founded in 1895 by a coalition of Insurance companies. Their purpose was to establish a standardized set of guidelines to help reduce and hopefully eliminate death, injury and economic loss caused by fire. The NFPA guidelines and codes were codified into the basic building codes and standards used throughout the US today. Similar regulations are also used throughout the world.

The Exit Light Company has compiled some useful history and data behind the various codes and regulations. [ https://www.exitlightco.com/Fire-Codes-Regulations.html ]

So the next time you are in a public building, take a minute to look around and make note of the exit signs. Remember, they are there for your safety.

Battle of the Power Free Exit Signs: Tritium vs. Photoluminescent

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Which Power-Free Exit Sign is Right for You?

Picture the scene… a centuries old brick building receives the designation as a protected historical site. The owners want to open a museum on the premises and begin the daunting task of bringing it up to code for public use. The fire marshal says all that’s left is the matter of egress lighting…

What to do? An exit sign is required to be mounted on that beautiful brick wall but there is no electricity at that location.

Many find themselves in this predicament, whether it’s a historical site or not. Do you really want to shell out upwards of $1000 to have an electrician run power to a location that doesn’t have it? There must be a better way right?

Enter the Power-Free Exit Sign options

Tritium Exit Signs

In the blue corner we have the self-luminous tritium exit sign. These signs are lit by tritium gas, which is contained within hermetically sealed, phosphor-lined glass tubes. Electrons emitted by the gas bombard the phosphor causing it to produce illumination. This all happens without the need for any outside power or intervention. It’s the same technology used in watch hands and firearm optics. Click here to see our full line of tritium exit signs.

Tritium Pros:

  • Set and forget – truly self-contained and maintenance free
  • Easy installation – no electrician needed
  • Code compliant – meets UL924 and NFPA 101 life safety standards

Tritium Cons:

  • High cost – starting in the upper $200’s, there is a high entry cost
  • Disposal – the costs don’t stop at the purchase price. Once the lifespan has expired, there is a high cost for disposal as well
  • Paperwork – due to their nature, these need to be registered with the US Nuclear Regulatory Commission

Photoluminescent Exit Signs

In the red corner we have the photoluminescent exit sign. Made with photoluminescent pigments, these signs can absorb and store energy from ambient light. In the case of sudden darkness, such as a power outage, the photoluminescent material is immediately visible. Think ‘glow-in-the-dark’ toys from childhood, only much better quality. Click here to see our full line of UL listed photoluminescent exit signs.

Photoluminescent Pros:

  • Set and forget – maintenance free. No need for batteries, bulbs or even testing
  • Easy installation – no electrician needed
  • Code compliant – meets UL924 and NFPA 101 life safety standards
  • Low cost – UL Listed exit signs starting in the $40 range, so these offer the most value when installation costs are factored in

Photoluminescent Cons:

  • Light charging – 54 lux light requirement at installation location needed to maintain the “charge” of the photoluminescent pigment (light can be from manmade or natural sources), so these are not suitable for dark locations

And the Winner is…

In our opinion, the low cost and ease of installation make photoluminescent exit signs the clear winner. The one caveat is the light requirement needed to keep the photoluminescent material functioning correctly. There is a place for tritium where this light is not available, but the high initial cost as well as price of disposal make it a harder pill to swallow. If you have any questions, please contact our award winning customer service team at 877-352-3948.