Induction Lighting

Induction Lighting
No other lighting technology offers so much potential to save energy, reduce CO2 emissions, improve public safety and enhance the quality of our environment.
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Induction Technology
- Long lamp life of 100,000 hrs
- No ballast or filament to break
- Colour Rendition Index (CRI) of 84
- Frequency Generator – 460,000 Hrs
- 23% Light depreciation over the lamp life
- Potentially over 50% energy savings over HPS or HID
- Reduced waste thermal energy
- Instant start and Restart time
- Flicker free, low harmonics, high PF
Inductive Lighting vs High Pressure Sodium
Inductive Lighting
- Long average lamp life of 100,000 hours
- Frequency Gen – 460,000 Hrs
- No ballast or filament to break
- CRI of 84
- Maintenance free - long life up to 20 years
- Low light depreciation over the lamp life
- Potentially over 50% energy savings
- Instant start, flicker free, low harmonics, high PF
- Improved public safety
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High Pressure Sodium
- Average life of 24,000 hours
- Ballast, Capacitor & Electrode prone to failure
- CRI of 21
- High maintenance – frequent lamp & ballast replacement
- Over 50% light depreciation over lamp life
- Higher energy consumption
- Warm-up of 5 to 10 minutes
- More mercury in HPS than Induction
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How Induction Lighting Works
The basic technology for induction lamps is not particularly new. Essentially, an induction lamp is an electrodeless fluorescent. Without electrodes, the lamp relies on the fundamental principles of electromagnetic induction and gas discharge to create light. The elimination of filaments and electrodes results in a lamp of unmatched life. Lasting 100,000 hours or 25 years, this system can outlast 100 incandescent, five HID, or eight typical fluorescent lamp changes.
Based on these well-known principles, light can be generated via a gas discharge through simple magnetism. Electromagnetic transformers, which consist of rings with metal coils, create an electromagnetic field around a glass tube, which contains the gas, using a high frequency that is generated by an electronic ballast. The discharge path, induced by the coils, forms a closed loop causing acceleration of free electrons, which collide with mercury atoms and excite the electrons. As the excited electrons from these atoms fall back from this higher energy state to a lower stable level, they emit ultraviolet radiation. The UV radiation created is converted to visible light as it passes through a phosphor coating on the surface of the tube. The unusual shape of an induction lamp maximizes the efficiency of the fields that are generated.
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