Benefits of LED lights in large industries

Benefits of LED lights in large industries

LED lighting has swept the market of conventional lighting, and is doing the same for industrial installations of all bands. Long life. Reduced energy consumption Less maintenance In 2030, the Department of Energy estimates that LED lighting could save 190 terawatt-hours of electricity per year, equivalent to a whopping $ 15 billion. And to top it all, the purchase prices of lamps and accessories continue to fall, which helps an increasing number of facility managers to update their LED lighting.

Benefits of LED lights in large industries

1- Energy efficiency

LEDs use approximately 40 to 70 percent less electricity than traditional incandescent, fluorescent, and halogen lighting options, leading to substantial energy cost savings. These savings are combined in applications where the lighting is on for long periods of time. In addition, LED devices can focus light hemispherically, or in specific directions, unlike conventional bulbs that emit light (and wasted energy) spherically in all directions. This directional capacity reduces the loss of light and energy, contributing even more to saving.

2- Long life

Unlike incandescent lighting, LEDs never "burn", they simply dim over time. Quality LEDs have a nominal life of 100,000 hours at L70, or at least 70 percent of the initial light output, depending on the lamp and the device. LED systems can reduce the labor used in the replacement of light bulbs due to their long service life in commercial and industrial environments, helping to reduce overall maintenance costs.

3- Durability

Further contributing to the reduction of maintenance costs, LED systems are difficult. Without filaments or glass cabinets, LED fixtures are resistant to breakage and are largely immune to vibration and other impacts, which means they are perfectly adapted to the industrial environment.
Traditional lighting is usually contained in a glass or quartz exterior, while LEDs are mounted on a circuit board and connected with welded wires that may be vulnerable to direct impact, but no more than your smartphone.

4- Instant On

Many fluorescent and HID lamps do not provide full brightness immediately, often requiring about three minutes to achieve maximum performance. LED systems, on the other hand, emit a brightness of 100% immediately, with no re-ignition delay. For industrial LED facilities, this is critical in the event of a power outage or early in the morning.

5- Fast cycling

Traditional light sources tend to have a shorter lifespan the more they turn on and off, where LED systems are not affected by the rapid cycle. If you are considering a system that includes intelligent controls such as occupancy detection and natural light collection in parts of your facilities, LED lighting is the perfect option.

6- A foundation for intelligence

LED systems are semiconductor devices in the heart: they emit light, of course, but they can do much more. LEDs are inherently compatible with new advanced systems that can bring new holistic energy efficiencies to any installation. With LED, facility managers can continuously monitor performance to ensure and identify savings opportunities and can incorporate lighting with other systems, from energy storage options, solar energy and gas fire.

7- No IR or UV emissions

Less than 10 percent of the energy used by incandescent lamps is converted into visible light; Most of the energy is converted to infrared (IR) or radiated heat. Excessive heat and ultraviolet (UV) radiation present a danger of burns to people and materials, which can be doubly worrisome if used in an industrial environment that may contain hazardous chemicals, sophisticated machinery and more. LED systems emit virtually no IR or UV. Rapid advances in LED lighting technologies, with more improvements on the horizon, have resulted in lower costs and greater reliability of LEDs. And while it may be tempting to assume that LEDs are the right choice for all applications due to their energy efficiency, the selection should be based on a combination of factors, including the quality and distribution of light, the attenuation, and the expected duration.