retrofit recessed lighting

7 Best Tips for Installing Retrofit Recessed Lighting

Recessed lights are sleek, clean, and an asset to any modern home. But recessed light installation can be difficult, dirty, and tiring because you are working with your arms above your head.

To make matters worse, you are often fighting against lights that refuse to stay secure in the ceiling. Use these tricks and hacks to make your retrofit light installation go faster and smoother. The result will be an attractive recessed light installation that provides steady, dependable light for your home.

Purchase Recessed Lights That Stay in Place

Recessed lights are held in place by clips that snap inside the ceiling. A good recessed light that decisively snaps into your ceiling and stays secure is highly valuable.

Poorly designed lights will unsnap and fall when someone walks on the floor above or even when a door shuts. Lights that require you to spend more time pushing and clipping them into place are a huge waste of time.

That’s why, when shopping for lights online, you should spend time on the reviews and keep your eye open for comments regarding clips and about lights staying up or falling.

One trick for getting recessed lights to stay in place is, upon installation, not to rely on the recessed light clips to draw the light housing up into the ceiling.

Instead, you should provide the push by placing your gloved hand inside of the light and pushing firmly up. When the light is flush with the ceiling, snap the clips down with the other hand.

Plan Well to Avoid Patching Holes

Patching accidental holes slow down the installation process, often by hours. Plan well and intelligently, thinking in terms of cable runs, correct placement of lights, and establishing an attractive pattern of lights.

If you are averse to planning, you will find that drywall patching, mudding, sanding, priming, and painting are extra layers of work that are far worse than planning. Creating a smart light plan well ahead of time gives you better-recessed lights and saves work.

Cut All of the Ceiling Holes at Once

It can be tempting to cut a hole, wire and place the light, then move onto the next one. This may work with more accessible items like wall outlets. But given the amount of work involved with cutting into ceiling drywall, it is best to do all of the cutting at one time.

Suit up with safety glasses, a respirator or dust mask, and a hat. Cut all of the holes at one time and clean up the work area. Then you can dust yourself off and get to the cleaner job of connecting the electrical cables to the recessed lights.

Cut the Holes to Tight Tolerances

Recessed lights have very low diameter tolerances. If you cut the ceiling hole even a tiny bit too big, the light housing is at risk of slipping through. If you cut the hole too small, it can be difficult to widen the hole without damaging the ceiling.

The adage “Measure twice, cut once” is true in matters relating to drywall ceiling holes. Use the paper template provided by the recessed light manufacturer. Then check and re-check the measurements on your ceiling saw.

Cut the hole exactly on the line that you draw on the ceiling with your pencil. Do not deviate by even 1/8-inch, as this may prevent the light from slipping in or it might cause the light to slip out.

Score the Ceiling Drywall With the Ceiling Saw

Adjustable hole saws are good but not perfect. While ceiling saws are capable of scoring a nice circle, they can sometimes cut a ragged hole if you continue to cut all of the ways through.

One trick is to use both the ceiling saw and the jab saw. Score the drywall paper with the ceiling saw. Then go back with the jab saw and complete the circle. This simple trick will give you a perfect circle every time.

Work on the Ground as Much as Possible

Working on the ladder drains your energy faster than working on the ground. Not only that, the more time you spend on the ladder, the greater your chances of falling and injury.

One trick that saves strain on your legs and neck is to complete as much work as possible on the ground, rather than upon the ladder. If the weather is favorable, you can even go outside for some of the work, such as adding cable clamps to the boxes.

Activities, like stripping wires and ripping cables, are best done off of the ladder. Save your ladder work only for those moments when you need to make the final connections or push the light up into the ceiling.

Tame the Cables Before Placing the Light

Electrical cables can re-position your light in ways that you did not intend. Usually, one or two electrical cables run into your recessed light.

These cables are so strong that they make placing your light within the ceiling hole a difficult task. Hold the light with one hand and, with the other hand, form the cable into an accordion-like shape. That way, when you push the light into the hole, the cable has more flexibility.

Why LED Is Ideal for Gym Lighting

Lighting has a significant impact on our lives from our mood to our productivity at work. Many factors need to be taken into consideration when determining the ideal gym lighting. Here are some tips for lighting gyms and why LED lighting is the best option.

Why LED Is Ideal for Gym Lighting

Finding the appropriate lighting for any room can be tricky, but lighting a gym can be especially difficult. There are many kinds of gymnasiums from commercial to home gyms. LED lights can provide the ideal lighting solution for any type of gym.

Ceiling your fate

Gyms are traditionally large rooms with high ceilings. As such, the first step to commercial gym lighting is a ceiling that’s at least 20 feet above the floor. However, high ceilings result in high risk and more difficult maintenance when cleaning or changing a light bulb.

When lighting a gym, it is ideal to change them the least often possible. Due to the high ceilings, maintenance can be costly and time-consuming. LED lights can reduce maintenance costs, because of their durability and long lifespan.

Athletes need room to exercise at the gym since many workouts consist of lifting weights in the air. Gym-goers should be preoccupied with the weight they are lifting over their heads and not accidentally hitting a light fixture.

In terms of fitness center lighting, high ceilings are even more prominent. Fitness centers typically include indoor team sports such as basketball and soccer. Both of these sports can result in a ball flying high and hitting a light.

While a game of indoor basketball probably won’t take place in your home, the ceiling still needs to be considered for home gym lighting.

Athletes look at the ceiling at the gym, a lot. A large number of exercises require laying on your back and staring at the ceiling. The type of light shouldn’t be distracting when staring at the ceiling during a workout.

Types of fitness center lighting systems

When taking on a gym lighting project, the ideal lighting should create a comfortable environment for all athletes.

The most common gym lighting systems, metal halide and high-pressure sodium (HPS) lights, are not ideal for lighting gyms. Both of these systems contain the toxic element, mercury, and need to be disposed of properly.

LED lights do not contain mercury and have been known to benefit your health. This important to health-conscious gym-goers.

Athletes need to stay focused and do not want to be distracted by unnecessary buzzing or flickering coming from lights. Metal halide lights are known to be noisy and can buzz after extended periods of use. In contrast, LED lights don’t flicker or buzz.

Remember, gym-goers will spend a lot of time staring at the ceiling. Commercial gym lights that use metal halide or HPS lights have been known to flicker.

While this issue is not as prevalent when lighting a home gym, one of the biggest issues home gym projects face is using lights that are too bright. Fluorescent lights should be avoided at home since they emit harsh, bright light.

Ultimately, metal halide lights need to warm up before reaching optimal lighting. This is inconvenient for gym-goers that work out early in the morning, as well as for gym managers that need to go out of their way to warm-up the metal halide lights early in the morning. LED lights help avoid this inconvenience, since they are ready to go at the flick of the “On” switch.

An Ab-solutely Better Workout with LED Light & Power

LED Lights are the best choice when designing any gym lighting project. Whether it’s a commercial gym or an at-home gym, gym owners and gym-goers can reap from the benefits of LED gym lights.

LED Lighting

Why LED Consumes Less Power

A light emitting diode (LED) contains a semiconductor. The semiconductor acts as a junction through which electrical energy is filtered, releasing light as a by product.

Light is therefore emitted directly from the source input, without first powering a separate light emitting load (e.g. filament).

In this way, LED consumes less power than rival technologies. In comparison, other light emitting technologies (e.g. incandescent bulbs, neon lights, halogen lamps) present an energy drain where materials such as metals or gases must first be heated in order for light to be produced.

See the following list for a better idea of energy consumption across common lighting options. Power needed for equal light output (luminosity):

• 40 Watts – Incandescent Bulb
• 29 Watts – Halogen
• 10 Watts – CFL
• 5 Watts – LED

Some of the more well-known statistics relating to the benefits of LED bulbs include “80% overall savings” and “25x longer lifespan”. We’ll take a closer look at some of the lesser known energy saving facts about LED bulbs further into the article.

LEDs Consume Less Power – The Science

The semiconductor is located in the centre of an LED bulb. It’s the piece of technology responsible for lower energy bills. But how does it work? How a semiconductor (transistor) works…

The semiconductor forms a small break in the circuit. This break is known as a junction. The junction is made up of one negatively charged plate and one positively charged plate. The plates are fixed in place facing one another, but not touching.

When connected to a circuit, electricity is compelled to cross the junction due to the negative/positive attraction. However, the plate that receives the energy does not have the capacity to allow all of the energy to continue along the circuit.

Energy must be released, given off as light. This means that light is actually the by product of a simple electrical circuit – in other words, the electricity is put to full use, instead of powering something else to make light, it simply makes its own. This is why LED consumes less power than other conventional methods of lighting.

Benefits of LED

Switching to LED bulbs for all home and industrial lighting solutions can and will save money and energy over time.

With the average bulb lifespan exceeding twenty years, many people are choosing to invest in LED bulbs for the added bonus of reduced maintenance. What other facts make LED the smart choice? LED facts:

• Reduced Heat LED bulbs are designed with heat dissipation in mind. Design features include heat sinks, meaning that what little heat is generated is not allowed to build up. Unlike traditional bulbs, LED lights are not typically hot to the touch.

• Environmentally Friendly LED bulbs do not contain any hazardous chemicals or materials. Unlike incandescent bulbs or CFL bulbs, for example, LEDs are not harmful to the environment. This means that LED bulbs may be recycled as part of normal household waste.

• The Ongoing LED Revolution LEDs can now be found everywhere. From TVs, smartphones, and traffic lights, to torches, headlamps, streetlights, and exterior home lighting. The savings involved have been driving increased demand and global production for more than a decade.

Vancouver Energy Retrofit

8 Silly Reasons Why People Don’t Switch To LEDs

Switching from halogen light bulbs to LEDs will significantly reduce your energy usage and lower your bills but people still refuse to. Here are the some silly reasons why people don’t switch to LED;

Expensive

LED Bulbs pay for themselves within months and continue to save money after.

Won’t fit in my existing fittings

LEDs use all the same standard fitting you have in your home.

Wait until payday

Every day you’re using Halogens you’re wasting money. Waiting until payday is actually costing you more.

It’s Spring/summer

Even though you use your lighting less in the summer, you’re still wasting money on non-economical halogen bulbs.

LEDs are new so use more energy

Halogens use 90% more energy to power them than LED bulbs.

Using ladders to change bulbs isn’t safe

Changing and throwing away bulbs isn’t Eco friendly

Carrying on using halogens will use significantly more energy that using LEDs. The more energy you use the worse it is for the environment.

LEDs don’t come in normal bulbs for my lamps

LED bulbs come in all shapes and sizes so they’ll be a replacement perfect for you.

Lighting Comparison: LED vs Metal Halide Lights

Ever wonder how metal halide lights and Light Emitting Diodes (LEDs) compare? Well here’s a head-to-head comparison of the two followed by an in-depth discussion of each technology in turn.

Metal Halide Lights

What is a Metal Halide Light:

Metal halides are compounds formed when metal and halogen elements combine. They include things like sodium chloride (salt) and uranium hexafluoride (the fuel used in nuclear energy reactors). Metal halide lamps produce light by passing an electric current through a combination of mercury and metal halide gas. They function very similarly to other gas-discharge lamps (e.g. mercury vapor) – the principal difference being the composition of the gas. The introduction of metal halide vapor generally improves both the efficiency and the quality of the light.

What’s The Upside to Metal Halide Lights:

Metal halide lights are 3-5 times as efficient as incandescent bulbs and produce a much higher quality light. In many cases, and depending on the particular mix of metal halides, they have a very high color temperature (up to 5500K). This means that metal halide bulbs can be very useful for high intensity applications like vehicle headlamps, athletic facility illumination, or for photographic lighting. By far the best thing metal halides have going for them is the high quality light they output.

What are the Major Deficiencies in Metal Halide Lights:

Amongst the deficiencies in metal halide lighting are the following:

1. Metal halide lights have the longest warm-up period of any light on the market. Many metal halide lamps used in warehouses and sports facilities take 15-20 minutes just to reach their normal operating temperature. This is a major issues for several reasons:

○ They must be operated for longer periods of time than an LED because they do not switch on and off on demand.
○ You must anticipate when you need light.
○ Lights might be operated when they don’t have to be (for example during a 30 minute down period) to prevent them from needing the warm-up when turned back on.

2. Metal halide lights get less efficient when run at less than full operating power. The average bulb lasts around 6,000 to 15,000 operating hours. Depending on the particular bulb, you might spend around the same amount initially with LEDs and metal halides. The problem is that over time you will have to purchase a whole lot of metal halides (2-5) to equal the lifespan of a single LED. Overall that means very high maintenance costs over time.

What are the Minor Deficiencies in Metal Halide Lights:

Among the minor deficiencies in metal halide lighting are the following:

1. Metal halide lights are omnidirectional. Omnidirectional lights produce light in 360 degrees. This is a large system inefficiency because at least half of the light needs to be reflected and redirected to the desired area being illuminated. The need for reflection and redirection of light means that the output is much less efficient for omnidirectional lights due to losses than it would be for the same light if it were directional by its nature.

Where Are Metal Halide Lights Commonly Used:

Common applications for metal halide lighting includes large sport facilities like stadiums or hockey rinks as well as high bay lighting for warehouses and large indoor spaces.

LED:

What is a Light Emitting Diode (LED):

LED stands for Light Emitting Diode. A diode is an electrical device or component with two electrodes (an anode and a cathode) through which electricity flows – characteristically in only one direction (in through the anode and out through the cathode). Diodes are generally made from semiconductive materials such as silicon or selenium – solid state substances that conduct electricity in some circumstances and not in others (e.g. at certain voltages, current levels, or light intensities). When current passes through the semiconductor material the device emits visible light. It is very much the opposite of a photovoltaic cell (a device that converts visible light into electrical current).

What’s The Major Upside to LED Lights

There are four major advantages to LED lighting:

1. LEDs have an extremely long lifespan relative to every other lighting technology (including LPS and fluorescent lights but especially compared to metal halide lights). New LEDs can last 50,000 to 100,000 hours or more. The typical lifespan for a metal halide bulb, by comparison, is 12-30% as long at best (generally between 6,000 and 15,000 hours).

2. LEDs are extremely energy efficient relative to every other commercially available lighting technology. There are several reasons for this to include the fact they waste very little energy in the form of infrared radiation (heat), and they emit light directionally (over 180 degrees versus 360 degrees which means there are far fewer losses from the need to redirect or reflect light).

3. Very high light quality.

4. Very low maintenance costs and hassle.

What Are Minor Upside to LED Lights:

In addition to the major advantages, LED lights also offer several smaller perks. These include the following:

1. Accessories: LEDs require far fewer accessory lamp parts.
2. Color: LEDs can be designed to generate the entire spectrum of visible light colors without having to use the traditional color filters required by traditional lighting solutions.
3. Directional: LEDs are naturally directional (they emit light for 180 degrees by default).
4. Size: LEDs can be much smaller than other lights (even incandescent).
5. Warm-Up: LEDs have faster switching (no warm-up or cool-down period).

What’s The Downside to LED Lights?:

Considering the upside you might think that LED lights are a no-brainer. While this is increasingly becoming the case, there are still a few tradeoffs that need to be made when you choose LED:

In particular, LED lights are relatively expensive. The up-front costs of an LED lighting project are typically greater than most of the alternatives. This is by far the biggest downside that needs to be considered. That said, the price of LEDs are rapidly decreasing and as they continue to be adopted en masse the price will continue to drop. That all said the up-front cost of LEDs when compared to metal halide lights are actually fairly close. Both lights (depending on the specific model and specifications) typically sell for around $10-$30 per luminaire. Of course this can change in both cases depending on the particular light in question.

Where is LED Commonly Used:

The first practical use of LEDs was in circuit boards for computers. Since then they have gradually expanded their applications to include traffic lights, lighted signs, and more recently, indoor and outdoor lighting. LED lights are a wonderful solution for gymnasiums, warehouses, schools and commercial buildings. They are also adaptable for large public areas (which require powerful, efficient lights over a large area), road lighting (which offer significant color advantages over low and high pressure sodium lights), and parking lots.

Further Qualitative Comparison

What’s The Difference Between Metal Halide and LED Lights:

The two different technologies are entirely different methods of producing light. Metal halide bulbs contain metals that are evaporated into inert gas within the glass casing while LEDs are a solid state semiconductor technology. Both technologies produce a very high quality light. LEDs tend to last much longer and are a more energy efficient and less maintenance intensive technology. Metal halides have long warm-up periods and a shorter lifespan but produce a very high quality light and are one of the most efficient lights when it comes to very cool color temperature outputs.

Why would LEDs put metal halide bulbs out of business:

Some metal halide lamps have long warm-up periods (15-20 minutes) when the light is first turned on or in the event that the power source is interrupted. Additionally, there is a small risk that a metal halide lamp can explode. Although this is rare and there are preventive measures that reduce risk, there is still the possibility of injury or damage as a result. Typical preventive measures include changing bulbs prior to their expected end of life and en-masse as a group (versus spot changing single bulbs that actually fail). This can significantly increase costs and significantly shorten the useful lifespan of the light.

Additionally, metal halide bulbs are inefficient energy consumers. On top of this, they need to be run for much longer periods of time than actually needed due to the warm-up requirement. This all translates to cost (generally manifested as a higher utility bill). Although they cost about the same as LEDs, metal halide bulbs will keep adding expenses over time based on the inefficient way in which they operate and the frequency with which they must be replaced. In a large-scale building (like a warehouse, hockey rink, or stadium), this inefficiency will really add up.

Metal Halide vs LED Comparison:

• Correlated Color Temperature

○ LED Notes

LEDs are available in a wide range of color temperatures that generally span from 2200K-6000K (ranging from “warm” yellow to light or “cool” blue).

○ Metal Halide Notes

Metal halide lamps generate a very cool white light. They are available in color temperatures as low as 3000K. Some metal halides are available with extremely cool color temperatures up to 20,000K.

• CRI

○ LED Notes

CRI for LED is highly dependent on the particular light in question. That said, a very broad spectrum of CRI values is available ranging generally from 65-95.

○ Metal Halide Notes

Metal halides are perhaps the best source of high CRI white light on the market.

– Winner Metal Halide

• Cycling (Turning On/Off)

○ LED Notes

LEDs are an ideal light for purposely turning on and off because they respond rather instantaneously (there is no warm up or cool down period). They produce steady light without flicker.

○ Metal Halide Notes

Metal Halide lights require a notoriously long warm up period. Many stadiums have traditionally relied on metal halide lights but the bulbs can take 15-30 minutes to get to full operating power.

– Winner LED

• Dimming

○ LED Notes

LEDs are very easy to dim and options are available to use anywhere from 100% of the light to 0.5%. LED dimming functions by either lowering the forward current or modulating the pulse duration. LED lights are not compatible with traditional incandescent dimmers (which lower the voltage sent to the light) so you need to purchase LED dimmer switches as well if you want to dim.

○ Metal Halide Notes

Metal halide lights can be dimmed through the use of different electric or magnetic ballast but the process changes the voltage input to the light and can consequently alter the light characteristics. Generally speaking metal halide lights are less efficient when run at less than full power. In some cases dimming can also cause the light to prematurely expire.

– Winner LED

• Directionality

○ LED Notes

LEDs emit light for 180 degrees. This is typically an advantage because light is usually desired over a target area (rather than all 360 degrees around the bulb). You can read more about the impact of directional lighting by learning about a measurement called “useful lumens” or “system efficiency.”

○ Metal Halide Notes

Metal Halide lights are omnidirectional meaning they emit light for 360 degrees. Much of these emissions must be reflected and/or redirected which means losses and lower overall system efficiency.

– Winner LED

• Efficiency

○ LED Notes

LEDs are very efficient relative to every lighting type on the market and extremely efficient relative to incandescent bulbs. Typical source efficiency ranges 37 and 120 lumens/watt. Where LEDs really shine, however, is in their system efficiency (the amount of light that actually reaches the target area after all losses are accounted for). Most values for LED system efficiency fall above 50 lumens/watt.

○ Metal Halide Notes

Metal Halide lights have average efficiency (75-100 lumens/watt source efficiency). They lose out to LEDs principally because their system efficiency is much lower (<30 lumens/watt) due to all of the losses associated with omnidirectional light output and the need to redirect it to a desired area.

– Winner LED

Efficiency Droop

○ LED Notes

LED efficiency drops as current increases. Heat output also increases with additional current which decreases the lifetime of the device. The overall performance drop is relatively low over time with around 80% output being normal near the end of life. Recent advances by researchers who have identified the reasons for droop in LEDs look to reduce losses even further.

○ Metal Halide Notes

Metal Halide lights also experience efficiency losses as the device ages and additional current is required to achieve the same lighting output. Efficiency losses are greater than LEDs and the degradation time shorter in the case of Metal Halides.

– Winner LED Note: recent advances in LEDs will likely improve their droop qualities.

• Emissions (In the Visible Spectrum)

○ LED Notes

LEDs produce a very narrow spectrum of visible light without the losses to irrelevant radiation types (IR, UV) or heat associated with conventional lighting, meaning that most of the energy consumed by the light source is converted directly to visible light.

○ Metal Halide Notes

Metal Halide lights produce relevant amounts of both IR and UV radiation.

– Winner LED

• Infrared

○ LED Notes

None

○ Metal Halide Notes

Metal Halide lights emit IR radiation which is a waste of energy for the purposes of regular illumination.

– Winner LED

• Ultraviolet

○ LED Notes

None

○ Metal Halide Notes

Metal Halide lights emit UV radiation and require a filter built into the bulb to keep these emissions from being radiated into the atmosphere. These filters are required to prevent fading of dyed surfaces exposed to metal halide light otherwise serious damage can occur to light fixtures or even human beings and animals (e.g. serious sunburn or arc eye).

– Winner LED

• Heat Emissions

○ LED Notes

LEDs emit very little forward heat. The only real potential downside to this is when LEDs are used for outdoor lighting in wintery conditions. Snow falling on traditional lights like HID will melt when it comes into contact with the light. This is usually overcome with LEDs by covering the light with a visor or facing the light downward towards the ground.

○ Metal Halide Notes

Metal halide bulbs emit a significant amount of heat (roughly 10-15% of the total energy consumed is emitted as heat). In some circumstances this could be beneficial, however, it is a generally a bad thing as heat losses represent energy inefficiencies. The ultimate purpose of the device is to emit light, not heat.

– Winner LED

• Failure Characteristics

○ Led Notes

LEDs fail by dimming gradually over time. Because LED lights typically operate with multiple light emitters in a single luminaire the loss of one or two diodes does not mean failure of the entire luminaire..

○ Metal Halide Notes

Metal Halide lights exhibit an end-of-life phenomenon known as cycling where the lamp goes on and off without human input prior to eventually failing entirely. For this reason in many applications (such as a sporting stadium) metal halide lamps must be changed out prior to the end of their useful life.

– Winner LED

• Foot Candles

○ LED Notes

Foot candle is a measure that describes the amount of light reaching a specified surface area as opposed to the total amount of light coming from a source (luminous flux). LEDs are very efficient relative to every lighting type on the market. Typical source efficiency ranges 37 and 120 lumens/watt. Where LEDs really shine, however, is in their system efficiency (the amount of light that actually reaches the target area after all losses are accounted for). Most values for LED system efficiency fall above 50 lumens/watt.

○ Metal Halide Notes

Foot candle is a measure that describes the amount of light reaching a specified surface area as opposed to the total amount of light coming from a source (luminous flux). Metal halide lights are very efficient compared to incandescent lights (75-100 lumens/watt source efficiency). They lose out to LEDs principally because their system efficiency is much lower (<30 lumens/watt) due to all of the losses associated with omnidirectional light output and the need to redirect it to a desired area.

– Winner LED Note: Foot Candle ratings are very application specific and vary case by case so relative performance is difficult to generally quantify.

• Lifespan

○ LED Notes

LEDs last longer than any light source commercially available on the market. Lifespans are variable but typical values range from 25,000 hours to 100,000 hours or more before a lamp or fixture requires replacement.

○ Metal Halide Notes

Metal Halide lights have an better lifespan relative to old technology like incandescent lights but they have a short lifespan compared to LED. Typical lifespan values range from 6,000 hours to 15,000 hours before a bulb requires replacement. Note: sometimes metal halide lights need to be changed out before the end of their useful life to preempt serious degradation effects like color changes or cycling.

– Winner LED

• Lifetime Costs

○ LED Notes

LED lighting has relatively high initial costs and low lifetime costs. The technology pays the investor back over time (the payback period). The major payback comes primarily from reduced maintenance costs over time (dependent on labor costs) and secondarily from energy efficiency improvements (dependent on electricity costs).

○ Metal Halide Notes

Metal halide lights are relatively cheap to purchase but they are relatively expensive to maintain. Metal halide bulbs will likely need to be purchased several times and the associated labor costs will need to be paid in order to attain the equivalent lifespan of a single LED light.

– Winner LED

• Maintenance Costs

○ LED Notes

As a result of the operational lifetimes of LEDs and the frequency with which bulbs have to be changed out, LEDs are by far the best on the market in regards to lifetime costs.

○ Metal Halide Notes

Metal halide bulbs require regular relamping and ballast replacement in addition to the labor cost to monitor and replace aging or expired lights several times within the typical lifespan of a single LED.

– Winner LED

• Upfront Costs

○ LED Notes

LED light costs are high but variable depending on the specifications. The typical 100W-equivalent LED light costs somewhere between $10 and $20.

○ Metal Halide Notes

A 100W Metal Halide light costs somewhere between $10 and $30 per bulb depending on the specifications.

• Shock Resistance

○ LED Notes

LEDs are solid state lights (SSLs) that are difficult to damage with physical shocks.

○ Metal Halide Notes

Metal halide bulbs are relatively fragile. Perhaps more importantly, broken metal halide bulbs require special handling and disposal due to hazardous materials like mercury inside of many lights.

-Winner LED

• Size

○ LED Notes

LEDs can be extremely small (less than 2mm in some cases) and they can be scaled to a much larger size. All in all this makes the applications in which LEDs can be used extremely diverse.

○ Metal Halide Notes

Metal halide bulbs can be small but typically aren’t produced below roughly a centimeter in width. The size of the lamps is limited by the wattage and light output required for a given application.

– Winner LED

Temperature Tolerance

• Cold Tolerance

○ LED Notes

Minus 40 Degrees Celsius (and they will turn on instantaneously).

○ Metal Halide Notes

Minus 40 Degrees Celsius.

– Winner LED

• Heat Tolerance

○ LED Notes

100 Degrees Celsius. LEDs are fine for all normal operating temperatures both indoors and outdoors. They do, however, show degraded performance at significantly high temperatures and they require significant heat sinking, especially when in proximity to other sensitive components.

○ Metal Halide Notes

We couldn’t find any objective data on metal halide bulb performance in high temperature situations.

• Warm-Up Time

○ LED Notes

LEDs have virtually no warm-up time. They reach maximum brightness near instantaneously.

○ Metal Halide Notes

Metal halide lamps require a noticeable warm-up time that varies depending on the light. Metal halide lights for sporting stadiums might take 15-20 minutes to arrive at maximum brightness.

– Winner LED

• Warranty

○ LED Notes

Often 5 to 10 years.

○ Metal Halide Notes

Typically 1-2 years.

– Winner LED

Saving Your Building Money with LED Lighting

LED lights have been around since the early 60s, but by then most people hadn’t realized the benefits of using them. Nowadays, most businesses have started using them as substitute to other lighting systems due to their positive impacts such as energy efficiency.

This lighting refers to both in and on buildings using LED post tops, LED wall packs and LED bollards. Buildings require high supply of electricity and using ordinary bulbs incurs huge expenses.

Nonetheless, you can minimize these expenses by switching to LED lighting from Titan Enersave. Not only does it save you money in the long run, but it also brings tons of benefits which cannot be achieved when using regular lighting.

Titan Enersave is a Canadian lighting consultancy situated in Burnaby B.C which provides exceptional energy efficient LED products and services at affordable prices. There’s a reason to make the switch, especially now that every household and business has a role to play in reducing their carbon footprint.

Some of benefits of LED lighting include:

Energy efficiency

Regular lights such as incandescent bulbs convert 20% of electricity to light and 80% of it is converted to heat. On the other hand, LED lighting converts, 80% of electricity to light and only 20% is converted to heat, thus reducing the amount of energy wasted.

They last longer

Titan Enersave LED lights last up to 25 times longer compared to incandescent light bulbs. Consequently, once the LED lights are installed, you are certain that they will last long and you won’t incur high expenses to replace them regularly.

They produce less heat

When using traditional light bulbs, a lot of heat is released to the environment and your AC units use more electricity to cool the building which leads to high cooling costs. However, Titan Enersave LED lights produce less heat thus the AC units have less cooling work to do and in the long run, you end up saving money spent on cooling.

They have good light distribution

Traditional lightings tend to emit light in different directions and the light ends up in areas where it’s not required. On the other hand, LED lighting has better quality of light distribution by focusing light in one direction. This means that you can get the same level of brightness using a few LED lights compared to traditional lighting.

Titan Enersave partners with electrical contractors and BC’s top tier POWER SMART Alliance lighting distributors to give clients an impressive range of unique energy saving products and services tailored to suit their individual needs and budgets.