Oil and natural gas resources are highly in-demand for the fuel and energy sectors, and this demand will continue to grow. Companies working in these sectors are often hard-pressed to put effective electrical systems in place that can handle the energy requirements without compromising on safety and reliability.

The good news is that modern electrical solutions are designed to handle the pressures and demands of processes in every aspect of the oil and gas industry. Today’s electrical infrastructure combines safe and reliable power supply with state-of-the-art information management systems customized to suit various requirements.

Let’s take a look at some of the electrical equipment available for oil and gas industry applications:

These can easily be considered some of the most essential products for the oil and gas sector, since they offer improved safety and security for employees as well as production units. Efficient warning systems can reduce the risk of casualties and save lives in case of untoward incidents.

Hydroelectric power is a technology which produces electricity via hydropower, or the energy released by moving water, such as for instance water moving through the course of a river or falling downhill. In the United States today, most hydroelectric power is generated by water flowing downhill, and most of this downhill flow is achieved via the construction of artificial dams. The dams are constructed so as to engender sufficient water outflow volume by way of creating a significant “head” or, that is, the difference in height between the water’s source (or crest) and the water’s outflow.

A significant enough “head” is necessary to produce a sufficiently useful flow of energy from the hydroelectric power source. This is why dams constructed for the purpose of creating hydroelectric power are built as high as is feasible. Within these dams there are turbines which receive the force of the water’s flow, and the turning of the blades of the turbines generates the electrical current which is transferred to long-distance power lines and transformed into electricity for use in homes and offices.

In addition to the dams there are some tidal harnesses which have been constructed. These draw electrical power from the flow of the tide along a coastal area. In the United States, there is a heightened interest in creating many more small, unobtrusive tidal flow hydroelectric power generators in rivers and large streams which would be used just for generating local electricity. In Canada, there is so much electricity generated by hydroelectric facilities that they simply say “hydro” to refer to any public electricity utility, even nuclear power. Norway and Iceland also generate nearly all of their citizens’ needed electricity by way of hydroelectric power.

North America has the greatest hydroelectric power capacity. Canada is the world’s leading nation in that regard, and the United States is the world’s second leading nation.

Except in nations that have a proportionate abundance of the right natural resources (i.e. a lot of water), hydroelectric power is used to handle the supplying of electricity during high peak loads. Today’s greatest single interest in harnessing more hydroelectric power resides in the fact that it is a renewable source, or “alternative source”, of electricity, since obviously the planet will never run out of water and it doesn’t matter if the water utilized is potable or not.

The big concern about using more hydroelectric power is that it may disrupt ecosystems too much if more facilities (especially dams) are installed. A secondary concern is that water demand for hydroelectric facilities sometimes conflicts with irrigation demands.

The Greeks were using hydroelectric power to turn water-wheels for the grinding of grain over 2,000 years ago. Hydroelectric power was “rediscovered” in the 18th century in the U.S. and western Europe.

The first modern hydroelectric dam was completed in 1882 on the Fox River in Appleton, Wisconsin in the United States and could generate 12.5 kW of electrical power. It was based upon the ideas of American inventor Lester Allan Pelton, who invented a jet-free water turbine in 1880.

Many appliances use electricity even when they aren’t powered on. This property is known as standby power, which is used to perform functions that must operate continuously. Energy saving measures often include unplugging electrical devices to eliminate the cost of keeping them in standby mode. This strategy requires you to estimate the cost of standby power for each appliance since it may not be worthwhile to unplug a device when it is not in use.

A year is about 8,766 hours long, so a month has an average duration of about 730.5 hours. This means you can multiply an appliance’s standby power in watts by 0.73 to obtain the kilowatts of energy it consumes each month, assuming it is always plugged in. A typical cost of electricity in the United States is 10 cents per kilowatt-hour. You can therefore estimate the standby cost of an appliance in dollars by multiplying its standby power consumption in watts by 0.0731.