In today’s day and age, we rely on electronics for everything. Do you have a plan to deal with the fallout if the grid goes down due to accidents, weather, or other occurrences? A backup generator can help get you through these difficult times, keeping water flowing and well pumps running, powering sump pumps to protect your property from flooding, keeping food in refrigerators safe, providing fans, air conditioning or heating for protection from weather, and more.

Installing a backup generator can help you safely and effectively deal with the following situations:

Do you know how to safely install and operate your backup generator? Contact Mr. Electric® today. Our professional technicians have the knowledge and skills to get your generator – and you - prepared for all life has to throw you way.

The storage of Storage of renewable energy with Wind and Solar for daily use:

Photovoltaic and Wind technology together make this really cool. When you add power storage with renewable energies, these automatic transferred units can be programmed to “sell back” electricity when electrical demand and storage capacities are satisfied. All of this is programmable in any order/sequence desired. By putting the units side by side, these systems can produce 240 volt single phase or three phase power with a pure sign wave.

Here is a great example of a real world solution that we call the Power Cart. This example utilizes solar panels, yet wind power could be added to the system very easily. This Power Cart system provides 20,000 watts of usable power, rechargeable through 4 solar panels, offering any home or business the ability to create, store, and use their own renewable electricity on a daily basis, and maintain power in the event of an outage.

Power Cart

Power Cart will have a Continuous Output of 3.6KW with a 9KW Surge start. This 48 volt grid interactive Outback power plant has 60 amp input/ output, and a UPS 60 amp transfer switch. It works from batteries, generator, or grid and can be charged by sun, wind or any type of generator or from the utility grid. Recharge can be programmed to take advantage of these in any order or percentage you desire. It is internet programmable and monitorable taking over 400 screens in excess of 10,000 commands – including the most important one ‘Let me work on automatic and don’t bother me.’ Also included is complete DC protection from the array to the charger, and from the batteries to power plant& AC protection via 60 amp breaker outlets (wired per country – as per order) also available in any output voltage ex. 100-150 volt, in 50 or 60 cycle.

Power Cart is a 4 wheel trailer – Ready to Work. No assembly required

These can be daisy chained for more production, more voltage, more storage.

Wi-Fi capable.

About ElectricMan Inc.

Around the world, every city offers something different. Though they all have hustle and bustle, lots of buildings, and usually traffic, when you’re on their streets you would never mistake San Francisco for Cairo, Toronto for Tokyo, or Berlin for Rio de Janeiro. But what about from space? During the day, these cities tend to blend in with their surrounding countryside. However, when lit up at night, it’s easy to see how varied these cities can be.

Is it possible to tell anything about the life and culture of our cities when viewing their lights from above? You might be surprised at how much.

Landmarks

Can you guess which cultural icon jumps out of this landscape?

Now, take a look at this photograph of Denver, a much newer city. The streets are mapped out in a much more orderly, grid-like way, aligned North-South and East-West.

The majority of urban areas in Tokyo use green mercury vapor lamps. Only the most newly built areas glow the standard orange.

Development

When examining a city’s lights from above, you can also learn about development, community growth, and infrastructure. Check out this unique photo of two cities from two countries side-by-side – the border towns Cuidad Juarez, Mexico and El Paso, Texas.

The year of 2017 brings along more advancements in the commercial lighting space. And in a world in which things are changing so rapidly with lighting technology in virtually every way, it can be difficult to get everything you need to know in one place. For this reason, we’ve created this post in hopes of helping you get a rough guideline of the actual stadium lighting costs for the current year, 2017. Along with that, giving you the outlets to research more on the topic and get you one step closer to getting the most efficient and ROI focused technology illuminating your fields.

This post will be broken into two parts; the typical costs associated with the physical light itself and everything related to buying stadium lights. Secondly, the typical costs to powering your lights and how certain technologies may save you more money than others and how you can go about getting the highest return on investment when choosing a lighting technology and brand to go with.

To start off, we are going to cover the technical terminology of stadium lighting.

Firstly, stadium lighting is the simple term for high mast lighting. other technical terms, there are far too many to cover here. But, we think you should know the definition of lumens as we will be using it quite often. To explain, a Click here to view more about the pros and cons of both and which one is better for you.

All in all, it is too variable to give a definitive price to all situations. Keep in mind though, that a comparable LED fixture could cost double but, cut energy consumption by nearly 75% in some cases.

Since we seriously believe LED is the best option for stadiums and sports fields to illuminate their place, we are going to use that as our example (and recommendation).

Let’s keep it simple so you can use our example to get a rough idea what it will cost to run your lights.

Let’s say you have 10 lights. Currently, your high masts are metal halide and use 1,500 watts per fixture. Now, let’s say you are looking for a more efficient technology and you come across LED. You find a comparable light which will output the same amount of light (or lumens), and only consumes 400 watts per fixture.

In total, the metal halide lights are consuming 15,000 watts in total (when in use) and the LEDs would (if chosen) be using only 5,000 watts. That is 3 times less energy, which can lead to some great savings. This reduction from 1,500 watts to 500 watts per fixture is the exact reason fields both small and large fields are converting to LED over other technologies like metal halide and HPS.

For example, we often find that fields that convert to LED with us from metal halide or HPS high mast pole lights realize a payback of their investment in as little as 1 year. Additionally, since LEDs last much longer they get to realize these cost savings for much longer and thus; a much higher ROI over the lifespan of the light.

Additionally, since LEDs last longer they enjoy an additional benefit of less maintenance requirements. This allows more cost savings as an indirect benefit of LED high mast lighting.

Tips for Reducing Costs

We hope this post has answered your questions regarding most sports field lighting costs, if not, either use our contact information above or leave a comment below and a commercial lighting professional will personally reply to your questions and input.

The term “arc flash” is used to describe low impedance connections in an electrical system, which allows movement of unwanted electric discharge through the air from one voltage phase to another, or to ground. This leads to a rapid rise in temperature and pressure in the air between electrical conductors, causing an explosion known as an arc blast.

Arc blasts and the resulting heat can lead to fires, pressure waves and flying shrapnel that result in serious damage to life and property. These explosions typically occur without any warning, destroy electrical equipment completely and lead to severe injury or death of personnel present within the boundary of the arc flash.

What Are the Main Causes of Arc Flash?

Arc flash occurs when several electrical conductors are placed close to each other, with significant fault currents flowing through them. In this situation, ionization of the air can take place as a result of various factors – such as differences in potential – which leads to a low resistance path and allows current to flow through the air gap between conductors.

Many people assume that low voltage equipment is safe from arc flash, but arc flash hazard levels may be higher at low voltages, due to the high fault currents. Most incidents that occur in low voltage systems are caused by human error, e.g. a tool slipping while a technician works on electrical equipment.

Arc flash can also be caused due to: