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Should I Turn Off Water Heater If Water Is Off?

Written by Jeniffer Smith in Appliances,Hot Water Tank,HVAC 

Water heaters are a significant appliance that supplies hot water for every necessity in the home. But there is no need for the heater to function when you are on vacation or when there is a water outage. Should you turn it off or leave it turned on? Let’s discuss this in detail.  

Generally, If the water is off for a short duration (say a few hours), you do not need to turn off your water heater. However, if the water is off for a longer period, then turning off the heater will protect it from the damage of excessive heat buildup as the water tank is empty.

In this article, you will know when to turn off and how to protect your water heater during a water outage. So, keep reading. 

How does the water heater work? 

There are two common types of water heaters. 

Tankless heaters and those that use a tank. 

Due to this difference, the configuration of the heater differs. 

These two common heaters use gas or electricity to heat the water in the tank. 

The main components of heaters that use tanks involve the tank, heater, inlet water supply, and outlet water supply lines. 

A water heater with a tank contains three pipes. 

The first is to carry cold water from the tank to the heater. 

The second one is to carry the hot water out of the heater. 

And the third one is a safety valve near the tank to control the water pressure released from the tank. 

A water tank contains cold water in it. Whenever there is a need for hot water, cold water travels through the pipe to fill the water heater. 

A water heater fills the cold water and begins heating. 

It is coated with a corrosion-resistant cover to protect the inner lining of the water heater from damage. 

As soon as the water starts filling in the heater, a heating element located at the bottom will be activated and raises the heated water above the heater to be carried by the hot water pipe whenever there is a demand for hot water in your home. 

Suppose the water heater continues to run even during the water outage. 

In that case, the inner lining of the heater will be damaged. 

When the hot water is not used, it will stay at the bottom of the heater and continue to heat. 

Let’s see how tankless water heaters work. 

Tankless water hearts are gaining popularity as they are more energy efficient than a standard water heater. 

As tankless water heaters don’t want to keep running to keep the water hot, the energy consumption is low. 

Tankless water heaters are of two types. Boiler-mounted and standalone water heaters. 

Tankless water heaters work by heating a coil to boil cold water when there is a demand for hot water. 

Boiler-mounted water heaters use boilers to produce heat to turn cold water into hot water. 

At the same time, standalone water heaters use a coil, heat exchanger, and gas to heat the water. 

Tankless water heaters have low flow compared to standard water heaters. 

In the case of using a tankless water heater, turning it on won’t cause serious issues. 

However, when you are away from the house for a long time, turning off all the electrical appliances is best.  

Also read: Why Is My Hot Water Tank Constantly Filling?

Why Turning Off Your Water Heater Matters?

I have a real incident regarding the importance of turning off the water heater during a water outage. 

I went on a two-month-long vacation a year ago, leaving the house completely dormant. 

I left the water heart turned on even after turning off the water supply. 

Even after turning off the water supply, there was still water standing in the water heater as I didn’t drain the water. 

It was being heated continuously without being used. It seems that it kept expanding, creating pressure on pipes. 

At some point, due to the persistent pressure, pipes, and valves burst. 

When I returned, it was such a shock to me. 

I hired a professional to repair the damage. 

It was such an expensive repair as I had to pay the professionals and buy damaged parts. 

So, turning off the water heater is important, especially if you have a water heater using a tank. 

Sometimes, when you leave the water heater turning on when it is completely dry, it damages the inner lining of the heater. 

It reduces the heating efficiency of the water heater. 

In the long run, you will have to replace the unit completely. 

The Pros and Cons of Turning Off Your Water Heater During Water Outages

Before turning off the water heater, you must know its pros and cons. Here are the pros and cons of turning off the water heater: 

Pros of turning off the water heater

  • Turning off the water heater when not using it will save you more energy. If there is a water outage in your locality or you are going on a vacation, turning off the water heater will save electricity or gas bills. 
  • If you turn off the water supply or there is a water outage in your locality, turning off the water heater will prevent internal damage. When the water heater continues to work without the water supply, its heating element will be damaged. It will also cause overheating in the water heater. 
  • Turning off the water heater will ensure safety from electric hazards when not at home. 

Cons of turning off the water heater

  • Suppose you have turned off the water heater while on a long vacation; you will not get hot water immediately when you return home. After you turn it on, it will take time for the water heater to supply hot water. 
  • There is a risk of bacterial and mold growth while keeping the water heater turned off for a long time. The water tank of the heater will be wet, and heat will not be produced as the heater will be switched off. This forms a suitable environment for bacterial and mold growth. 

Overall, it is safe to turn off all the water heaters when there is no water supply available to prevent them from damage. 

Tips for Turning Off Your Water Heater Properly

Follow the step below to turn off the water heater: 

Turn off the gas or the electric supply

Locate the gas switch near the water heater. 

You will find a valve near the water heater to turn off the gas supply. 

Flip the switch to turn it off. If you fear a carbon monoxide gas leak, disconnect the gas supply from your home. 

You can also seek advice from a professional in turning off the gas supply to the water heater. 

If you use an electric water heater, locate the main circuit breaker, you can see a separate breaker for the water heater. 

Flip the breaker to turn off the electric supply to the water heater. 

Cut the water supply.

If the water supply is already discontinued in your water heater, you can skip this step. 

Or else, you can locate the valve near the water tank, facilitating continuous water supply to the heater. 

Close the valve to block the water supply to the heater. 

Closing the water supply wall ensures your water heater is safe while on a long vacation. 

Drain the remaining water in the water heater

The last step is to drain the remaining water in the water heater. 

To do so, locate the spout at the bottom of the water heater. 

Direct the spout to the floor drain to expel standing water in the heater. 

How to Protect Your Water Heater During Water Outages? 

During water outages, it is important to prevent the water heater from being damaged. 

Follow the steps below to protect your water heater during a water outage: 

  • If you use an electric water heater, turn off the power to the unit by flipping the circuit breaker to the off position. In case of using an electric gas heater, please turn off the gas valve near it to block the gas supply. It helps to prevent the water heater from internal damage. 
  • The next step is to turn off the water inlet valve near the tank. Turning off the water inlet valve will block the entry of dirt and debris. 
  • If the water outage lasts a few weeks, draining it from the tank is better. If the water is left in the tank, there are more chances of bacterial growth, including corrosion. You can prevent this by draining the water into the bucket. 
  • After draining the tank, please protect it from debris and dirt accumulation by wrapping the blanket.
  • When the water supply is restored, turn on the valve and let the water heater fill completely. Check if there are any leaks and cracks in the system. Repair it immediately to prevent water damage. 

The Impact of Water Outages on Your Water Heater’s Lifespan

A frequent water outage will have a serious impact on the efficiency of the water heater. 

It will also reduce the lifespan of the water heater. 

Here are the major impacts and how to prevent them: 

  • When frequent water outages in your area cause sediment accumulation issues in your water heater, sedimentation causes corrosion and also causes cracks in the water heater. It is best to clean the sedimentation regularly to prevent the issue. 
  • Switching the water heater during the water outage will cause overheating issues. A heating element in the water heater will continue to produce heat, resulting in internal damage to the water heater. 
  • The water flow pressure will change when the water supply is restored after the water outage. This change in the water flow pressure will damage the water heater. It will cause cracks and damage the inner lining of the tank. 
  • A frequent water outage causes corrosion in the water supply pipes. It results in the entry of debris particles into the heater. 

Steps you need to follow to prevent damage to the water heater

  • To prevent damage to the water heater from occurring due to pressure fluctuation, you can install a pressure regulator to handle the pressure fluctuations of the water after the restoration of the water supply. 
  • After the water outage, flush the water heater’s interior and tank to remove the sedimentation and other debris accumulation. 
  • Mineral build-up in the water heater can be controlled by installing a water softener in the water tank. 
  • Schedule professional water heater cleaning services to inspect its working condition. Clean the water heater regularly to prevent dust and debris accumulation during the water outage. 

The Importance of Conserving Energy and Saving Money by Turning Off Your Water Heater During Water Outages

When I talked about water outages and their impact on energy bills with my neighbor, he shared how he dealt with this situation efficiently. 

He said that during the last month, there were three water outages. 

It was terrible for him to deal with them as there would be a limited water supply. 

He was also worried about the water heater, which would get damaged due to frequent water outages. 

He also realized that continuous running of the water heater without the water supply would increase the energy bills. 

So, he turned off the water heater during every water outage last month.  

He said he noticed a significant fall in the energy bills at the month’s end. 

Due to this interaction with my neighbor, I understood the importance of turning off the water heater during a water outage. 

I decided to follow the same to conserve energy and prevent the water heater from getting damaged. 

You can also do the same to reduce your energy bills during water outages. 

Alternatives to Turning Off Your Water Heater During Water Outages

Many people hesitate to turn off the water heater as it may take time to heat it after restoring the water supply. 

If you feel the same, you can lower the temperature settings on your water heater. 

Or you can turn on the vacation mode on your water heater to prevent it from damage. 

Final thoughts

It is best to turn off the water heater if the water is off for the longest period. If there is a water outage in your locality or you are going on a vacation, in these two instances, leaving the water heater turned on will cause damage to it. 

There are chances of overheating, resulting in damage to the heating element. If the water is off only for a few hours, you don’t want to turn off the water heater. If you use a water heater with a tank, it is important to turn it off as there will be a steady flow of water from the tank. 

It is not the same in tankless water heaters. They are not prone to more damage like standard water heaters. I hope you would have got a clear answer to your question. 

What happens to the hot water tank when the water is shut off?

The inner lining of the water heaters is coated with corrosion-resistant materials, which will burn when there is no water supply.

Does the water heater use a lot of electricity?

A water heater is a high-energy-consuming electric appliance. It is estimated that every household spends $400-$600 on water heating.

 Reference:  Water heating Wikipedia

What Size Light Bulbs For Ceiling Fans?

Written by Arthur Smith in Electrical Basics,Electricals 

House owners who have bought a ceiling fan with a light fixture get confused about the right bulb size. Fortunately, I have done some research, and here’s what I found about the bulb size of the fan. 

Generally, a ceiling fan needs a 55-100 watts bulb. The right bulb size depends on the ceiling fan type and size, the base type, and the fixture rating. For example, a 36-inch ceiling fan model needs a 55 watts bulb, whereas a 48-inch fan model needs a 75W light.

Selecting the right bulb size is difficult for a beginner. Keep reading the article till the end to receive detailed information about the ceiling fan’s bulb type and size. 

Understanding the importance of choosing the right light bulbs for ceiling fans

Choosing the right light bulb for ceiling fans does not mean you go to the store and select any bulb. 

You should choose the right bulbs for the ceiling fans so that the light and fan work efficiently. 

Installing a wrong bulb size that doesn’t match the fixture rating causes fire hazards. 

For example, installing a 75W bulb in a fixture with a 60W maximum rating. 

The 75W bulb will draw more power from the 60W fixture, overheat, and cause a fire.

Besides, the insulation in the light fixture can handle only a certain amount of wattage or a heated temperature of up to 194°F before it becomes intolerable.

Below are some reasons why it is important to choose the correct bulb type:

  • The first reason is compatibility. The ceiling fans with light will have specific requirements for the light. Please choose the right bulb that matches the ceiling fan’s compatibility. Consult your manufacturer’s manual for it.
  • Using the wrong bulb type causes safety hazards. A wrong bulb will overheat and damage the fan, the light, and other objects close to it. You must choose a light rated for the enclosed fixtures, like those in the ceiling fans. 
  • Using the right bulb type is important for energy efficiency. It will reduce energy consumption and save money on electrical bills. For example, use LED light bulbs for your ceiling fans as they are energy-efficient and affordable.
  • The ceiling fans have an airflow that affects the room’s temperature. The right type of bulb should keep the room temperature the same. 

Types of light bulbs compatible with the ceiling fans

The ceiling fans usually are compatible with four types of bulbs:

  • Mini-Candelabra (E11)
  • Candelabra (E12)
  • Intermediate (E17)
  • Medium (E26)

They measure around 42-48 inches and have wattages between 55W to 100W. 

The actual bulb size for the ceiling fans is unknown. 

So, any bulb that fits the fixture in the ceiling fan is considered a suitable type and size for the ceiling fan. 

Let’s discuss these bulb types in a bit of detail.

Mini-Candelabra (E11) and Candelabra (E12) 

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LED Candelabra bulbs are famous for their energy efficiency in the high-lumen output per wattage, low costs, and longer bulb service. 

The Candelabra bulbs include a frosted, clear, and tinted surface finish.

The frosted bulbs have a slight trace of frosted components with different qualities that greatly decrease the pattern and glare. 

The LED Candelabra Base bulbs have different sets that use 4.5 watts but produce a brightness level of 60-watt incandescent bulbs. 

Additionally, you can easily install these bulbs, adjust their brightness level, and make them perfect for people wanting dimmable lights.

Some Candelabra bulbs with high scores include:

Intermediate (E17) light bulbs 

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The Intermediate lights go well for decoration in the restaurant pendant lights, chandeliers, ornamental lights, Christmas lights, wall sconces, and marquee lights. 

Appliances like refrigerators, ceiling fans, microwaves, and range hood fixtures use this type of light. 

A good quality Intermediate light is Maelsrlg E17 Intermediate Base LED Bulb, 6W (60 Watt Equivalent) G14 Globe Ceiling Fan Light Bulbs, Daylight White 5000K, 600 Lumens, Non-Dimmable.

Medium (E26) light bulbs 

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These bulbs are mostly used in the USA. 

The base types are interchangeable with E27 bulbs because their difference is only 1 millimeter. 

The light bases are commonly used for all screw bulb bases as they can easily connect with a few twists. 

The Medium E26 bulbs are used for general lighting, for example, ceiling lights, can lights, flood fixtures, outdoor spotlights, and vanity lights. 

Since they are used for various standard purposes, manufacturers use them in different styles.

SYLVANIA LED A19 Light Bulb, 60W Equivalent, Efficient 8.5, 10 Year, W, 5000K, 800 Lumens, Frosted, Daylight – 24 Pack (74766) is an E26 Medium-light with a good rating.

Recommended light bulbs for the ceiling fan

  • Handsang Candelabra LED Bulb
  • Luxrite LED Bulb
  • Comzler Candelabra LED bulb
  • Shinestar Ceiling Fan Light Bulb

Factors to consider while choosing the right size light bulbs for ceiling fans 

You must choose the right bulb size for your ceiling fan. 

Using a bulb that surpasses the fixture’s rating can start a fire. 

Besides, the fixture’s insulation can tolerate up to a certain temperature. 

Several factors determine the bulb size:

Base type

While selecting the light bulb for your ceiling fan, it is vital to check the base type of your fixture. 

Most ceiling fans will have a medium base. 

It is usually the standard size for the incandescent or candelabra bases. 

Fan size

Measure the size of your ceiling fan. 

The light will be bigger for larger fans with high wattages to provide sufficient illumination. 

On the contrary, smaller fans will need smaller-size bulbs to provide standard light. 

Fixture type

The light size you use must match the fixture’s rating. 

Choosing a bigger light that doesn’t match the light fixture’s rating will provide insufficient light, overheat, or start a fire.

Fan design

The fan’s design also plays a role in selecting the right bulb size. 

If your fan has light kits, limitations will be set for the bulb size in the ceiling fans. 

You must choose the ideal bulb size matching the fan’s design.

Room size

The light size depends on the room size. 

You will need a bigger or brighter light with higher wattage to provide adequate illumination for bigger rooms. 

A light with standard size and brightness gives sufficient light for smaller rooms.

Personal preference

Lastly, choose a size based on your personal preference. 

Some people prefer brighter and bigger lights, whereas some need smaller or dimmer lights for less light. 

I prefer a standard light for my room’s ceiling fan that can provide sufficient light, neither too bright nor too dim. 

I have a separate light for my room.

Light size of the already installed bulbs

Suppose your ceiling fan already has a light bulb installed, and you want it to replace. 

In that case, you should measure the existing light bulb instead for an ideal replacement.

The manual guide will also help.

Common sizes of light bulbs used in the ceiling fans

The light bulb sizes are measured in ⅛’s an inch. 

The classic bulb shape and size for a ceiling fan is A19. It is 19/8 of an inch in diameter at the width, or 2.375 inches. 

Here are some common bulbs sizes suitable for ceiling fans:

  • Mini-Candelabra E11 – 0.43 inches wide base and 0.51 inches high
  • Candelabra E12 – 0.47 inches wide base and 0.65 inches high
  • Intermediate E17 – 0.54 inches wide base and 0.82 inches high
  • Medium E26 – 1.03 inches wide base and 1.05 inches high

Here is a rough size recommendation of the lights according to the fan size and light wattage:

  • Ceiling fans with less than 44 inches – 60 watts Candelabra bulbs
  • Medium fans around 44 to 52 inches – 75 to 100 watts standard Medium bulb base
  • Fans measuring larger than 52 inches – 150 watts standard Medium light base

Do not follow these measurements blindly. Follow the factors before determining the right bulb size for your ceiling fan.

Wattage recommendations for the light bulbs in the ceiling fans

Three main factors determine the fixture’s maximum safe wattage:

  • The amount of heat produced by the light.
  • The maximum heat the fixture can tolerate.
  • The fixture type – whether enclosed or open to let the light heat dissipate.

Bulbs with high wattages produce the maximum heat. 

While choosing the light, make sure that the fan’s light fixture can tolerate the heat produced by the bulb.

The fixture type is very important. The fixture rating must match the rating of the light. 

If the manufacturer tells you that the light can give you a brightness equivalent to 60 watts, it is better to ignore them. 

Examine the amount of power the bulb consumes. 

When the fixture has a specific limit, it cannot tolerate the heat produced by a bulb higher than that rating. 

Similarly, don’t use a light with a wattage rating smaller than the fan’s light fixture.

For example, if you use a 14-watt bulb with a brightness equal to 100 watts in a 40W fixture, the light bulb will have a low shelf life. 

The energy efficiency also determines the light bulb’s wattage.

The high-wattage bulbs will consume more energy. For energy efficiency, you should use bulbs that consume less but provide enough light.

Usually, ceiling fans measuring 36 to 56 inches work fine with 55W-100W bulbs.

Below are some bulb recommendations for ceiling fans with their wattages and lumens:

  • 40 watts light is suitable for smaller rooms with small ceiling fans.
  • 60 watts light is a standard light for most standard-sized ceiling fans.
  • 75 watts is slightly higher for 44-48 inches fans and rooms that need slightly bright and focused light.
  • 100 watts and higher are recommended for larger fans and rooms that need proper brightness. Check the fixture rating of the fan before buying these lights.

Suppose the light fixture of the ceiling fan has measurements and sizes in lumens, and you need the wattage recommendation for it. 

If the light measurement is in lumens, below are some recommended wattages accordingly:

25 lumens 

  • Incandescent – 5 watts

100 lumens

  • Incandescent – 15 watts
  • LED – 1-2 watts

200 lumens

  • Incandescent – 25 watts
  • LED – 2-3 watts

350 lumens 

  • Incandescent – 35 watts
  • LED – 4-5 watts

450 lumens 

  • Incandescent – 40 watts
  • CFL – 9-13 watts
  • LED – 6-8 watts

800 lumens 

  • Incandescent – 60 watts
  • CFL – 13-15 watts
  • LED – 9-13 watts

1,100 lumens 

  • Incandescent – 75 watts
  • CFL – 18-25 watts
  • LED – 12-15 watts

1,600 lumens 

  • Incandescent – 100 watts
  • CFL -25-30 watts
  • LED – 16-20 watts

2,600 lumens 

  • Incandescent – 150 watts
  • CFL – 30-35 watts
  • LED – 25-28 watts

Energy efficiency considerations for the light bulbs in ceiling fans 

When choosing a suitable light bulb for the ceiling fan, energy efficiency is important. 

Here are some considerations related to energy efficiency:

  • Pick light bulbs with lower efficiency that gives proper brightness. Low-efficient bulbs use less energy, generate less heat, and provide enough brightness. 
  • High lumens mean high wattage. So, buy a light bulb that delivers enough luminance but consumes less energy. Use LED lights as they are bright and use less power than traditional incandescent bulbs.
  • The color temperature is the light appearance. The bulbs with a color temperature of 2700k-3000k are the best for ceiling fans as they are warmer, consume less energy, and provide enough light.
  • Look for bulbs with low-wattage energy star ratings. 

How to install the light bulbs in the ceiling fans?

Ceiling fans with lights are available in wide varieties and designs.

If your fan does not come with a light, it doesn’t mean you cannot install one. Check the fan closely to find a setting for the light installation. 

Here are the steps:

  • Turn off the power at the fan’s circuit and check whether your ceiling fan has a housing cap at the center. It is the place where an optional light assembly will be installed. 
  • Unscrew the housing cap and remove the decorative plates covering the light attachment points and wires. Without housing, your ceiling fan cannot have a light.
  • Check whether the wires inside the housing cap are for an optional light assembly. Several wires of different colors (black and white) will be capped off with wire nuts. Sometimes, these wires might be labeled with LIGHTING POWER.
  • Measure the attachment point on the ceiling fan. Determine the light size, measure the diameter of the opening, and check the screw holes on the lighting assembly to attach the light. 
  • Also, note the group, fan style, and model number. Parts of the company will be easier to collect. 

Visit a store for the appropriate light kit.

Some companies have kits that can fit various fan models, whereas some will only fit fans of the same company. 

Check the style name and model number to receive the right parts. 

The ceiling fan’s light assembly will come in various styles. So, decide whether you want a fixture with one or more lights.

Here are the steps of installation:

  • Turn off the power at the breaker.
  • Open the housing cap to unhide the wires. Track the parts you remove because after installing the light, you need to put them back correctly.
  • Connect the light’s wires to the fan’s wire with the wire nuts parallelly by lining the two matching wires; the fan’s black wire with the light assembly’s black wire and the white with the white. Follow the manual once for verification. Secure the wires with a wire nut. 
  • Screw the lighting assembly in the ceiling fan. 
  • Install the light bulbs, the glass shades, and the pull chains. Follow the manufacturer’s manual for proper directions. 
  • The shades in the fixture will be placed with the thumbscrews. When you unscrew this, keep them attached with slight pressure on the multiple sides of the shades.
  • Now, flip back the power at the breaker, pull the chain, and check your fan with light. 

Follow the same process to replace the light in a fan that already has a light installed.

If there is any problem, call an electrician for help.

Troubleshooting common issues with light bulbs in ceiling fans

When you turn on the fan with a light, you will sometimes find that the light in the fan is not working properly. 

Expansion and contraction make electric current produce heat after turning on the ceiling fan, causing numerous issues over time. 

Another reason is a damaged ceiling fan kit or burned bulb sockets. 

This section will help you troubleshoot these issues easily. 

You can follow these troubleshooting tips to solve the issues without anyone’s help. In case this doesn’t work, hire an electrician.

Check the bulb conditions.

The common cause behind a ceiling fan with a light bulb not working is damaged or burn-out lights. 

If your fan has a bulb, the fan will not light up your room. So, replace the bulb. 

Ensure that the bulb’s power suits the fan’s requirements. 

Screw the new bulb properly in the light socket for adequate working.

Check for loose connections

Loose wire connections may cause problems with the light. 

To identify the reason, examine the wire connections keenly:

  • Turn off the power at the circuit. 
  • Locate the screws holding the light kit and unscrew them. In most ceiling fans, it will be under the fan blades.
  • Find the two-colored wires spiraled around a red wire close to the current supply. 
  • Check for loose connections or damage. If the connections are loose, tighten them properly. If they are damaged, hire an electrician to get them replaced. 
  • Restore the power to check its functionality.

Check for corrosion in the light sockets.

The sockets sometimes burn out during a sudden short circuit in the wires. To examine the wires:

  • Turn off the power at the breaker.
  • Unscrew the light from the socket and test whether the socket has power or not. 
  • Clean the corrosion part using a wire brush and a clean cloth.
  • Put the bulb back in the socket and check if the light works. 

If you still find issues, call an electrician to fix the problem. 

If the socket is damaged, replace it with a new one with the help of an expert.

Check the fan’s remote.

If you have a remote-control fan, examine the remote. 

Make sure that it has batteries. If not, replace the batteries and reset your fan settings. 

To reset the settings:

  • Turn off your fan with your remote. 
  • Press the remote’s power key for 10-15 seconds. 
  • Run the fan again after 20 seconds to see any changes. 

If it is still not working, get a new remote and try it again. 

Maintenance tips for light bulbs in the ceiling fans

Maintaining the light bulbs and the fan regularly can increase the fan’s and the light’s shelf life. 

Here are some maintenance tips:

  • Clean the light and the fixture regularly with a soft and dry cloth or microfiber. Dust can reduce their lifespan and the amount of light production. 
  • Check for loose connections regularly and fix them whenever you spot one.
  • Sometimes, the bulbs become difficult to remove from the fixture. Use a bulb lubricant to the bulb base to make the removal flexible.
  • If you ever find that the bulbs have burnt out, replace them immediately to prevent strain on the other bulbs in the fixture. 
  • Always turn off the power at the circuit before working with electricity. 

Also read:

Final thoughts

There is no fixed light bulb size for the ceiling fans. It depends on fan size, design, fixture rating, base types, and personal preference. The best light types for ceiling fans are Mini-Candelabra, Candelabra, Intermediate, and Medium light types. 

The bulbs’ styles, bases, and sizes will match the maximum ceiling fans. Another important factor is energy efficiency. Prefer lights that consume less energy but provide adequate illumination, for example, LED lights and energy-star rating lights.

Though most fans come with a light, some have separate installation options. Examine the fan housing cap, inside which you will find wires and fixtures for a light. Follow the installation steps to install a light in your ceiling fan and enjoy.

Can I use appliance bulbs in the ceiling fans?

Appliance bulbs are designed to tolerate harsh conditions and high temperatures. They have a durable filament that can withstand vibrations. So you can use them for your ceiling fans.

Can I use dimmable lights for the ceiling fans?

If your fan’s light fixture is for dimmable lights, you can use dimmable lights. Use a dimmable switch for a dimmable light. Otherwise, the light will overheat and damage both the switch and bulb. 

Reference: Ceiling Fans with Light Kits Wikipedia

Does A Subpanel Need A Ground Rod?

Written by Arthur Smith in Electrical Panels and Breakers,Electricals 

Subpanels come to the rescue when your electrical panel is full, but you need to add more circuits. The subpanel functions the same as the main panel. But what about its grounding? Does it need a ground rod? Let’s figure it out. 

A subpanel of any detached building needs a ground rod to protect your home from sudden surges caused by short circuits and lightning strikes near the power line of your home. The grounding rod protects you and the electrical devices of your house from overload. 

A subpanel without a ground rod is dangerous. This article provides a complete discussion about the purpose of the ground rod for the subpanel and how to install it correctly. Additionally, I will share some tips to troubleshoot common grounding issues. 

Understanding subpanels and their electrical requirements 

The main circuit breaker is the heart of our house’s electrical system. 

The subpanel is the smaller service panel that circulates energy to some specific places in your house or a separate structure near it. 

We need a sub-panel when the main electrical panel is full, but you need to add more circuits to your house. 

It works like the main panel and can be placed anywhere inside or outside the house. 

There should be at least one foot of distance between the subpanel and the main panel.

The double-pole 240V breaker at the main breaker feeds the sub-panel. 

The single feed is further divided into extra branch circuits at the sub-panel. 

The subpanels extend the wiring of multiple circuits for a particular place of your house or a detached building away from the main panel. 

Installing a subpanel saves a lot of time and construction costs as it reduces the number of home runs back to the main breaker. 

The subpanel will need two hot, neutral, and ground wires. 

The purpose of ground rods in electrical systems 

The ground rod is a thick rod connected to the main breaker with a copper ground wire. 

The ground rod is connected to the neutral transformer in your surrounding. 

You see them buried under the ground near your house. 

The ground rod forms an electrical path in the ground that stabilizes the voltage from the power source and dissipates the static discharge voltage to the ground. 

The ground rod is an electrical conductor to remove the danger from your house by transferring the incoming electricity during sudden surges or lightning into the ground. 

The alternating current, or AC, takes a path back to the source through the transformers. 

Then, the CD static discharge will want a route back to the ground or cloud where it all started. 

If you have an electrical panel, lightning is the most dangerous thing. 

The ground rod can divert the lightning’s static discharge from your roof to the ground safely.

The ground conductor never carries current under normal usage until there is a ground fault or a lost neutral connection. 

Do subpanels require a separate ground rod?

Since the subpanels work similarly to the electrical panels, they need a ground rod for protection. 

Sometimes, a subpanel may need two ground rods. 

The ground rod is vital in dissipating static electricity and high voltages during sudden surges and lightning strikes from your house to the ground. 

That is why a ground rod is crucial. 

All the subpanels for a detached building will need a ground rod. 

In contrast, a subpanel installed in the same building does not need an individual ground rod. 

The subpanels in the same building are already connected to a ground wire. 

The ground rod plays its main role during a lightning strike or sudden surges.

You will need at least one ground rod for a subpanel in a detached building. 

NEC requirements for grounding the subpanel

The National Electric Code, or NEC, has set a grounding rod or plate requirement in the ground for a subpanel at 25 ohms or less resistance in sections 250-56. 

Here are some guidelines provided by the NEC about sub-panel grounding:

  • The subpanel needs to have a separate grounding electrode system.
  • Connect the grounding conductor to the electrode and main grounding bus bar. 
  • The grounding rod should be at least 8 to 10 feet long. 
  • The local code tells you to install one grounding rod for each panel. For multiple rods, the distance between each rod should be 6 feet.
  • The grounding conductor size should be according to the size of the feeder conductor. 
  • A separate grounding bus bar should be present for the subpanel bonded to the subpanel’s metal enclosure. It will ensure the ground conductor is attached to the subpanel’s metal enclosure.
  • Separate the ground and neutral bars in the subpanel of the same building. Isolate the neutral conductor from the subpanel’s metal enclosure to separate it from the grounding bus bar and prevent their bonding. 
  • Ground the subpanel’s metal enclosure to the main panel’s grounding electrode system by connecting the grounding conductor from the subpanel’s grounding bus bar to the main breaker’s grounding bus bar. 
  • The subpanel must have four wire feeders. Old constructions may have three wire feeders. So, check it and fix it.

Alternatives to a ground rod for grounding subpanel

There are multiple alternatives to the grounding rod, and below are some of them:

  • One good alternative to a ground rod is to bond the grounding system of the subpanel with a rebar in the concrete foundation and the grounding rings. 
  • Another good alternative is a surge protector. Surge Protection Devices, or SPD, can protect against voltage spikes and limit the excess current by blocking it and protecting the house from burning the appliances. 
  • Try a water metal pipe if it enters your building from the outside. The pipe should have certain criteria, though, like coming in direct contact with the earth for 10 feet and continuous electrically. 
  • A concrete-encased electrode involves installing a metal rod or pipe 20 feet long in the concrete-encased hole. The encasement increases the contact between the surface area and the earth and gives an effective grounding electrode.
  • Connect the sub-panel to the existing ground electrode at the main panel with a grounding electrode conductor. The conductor size should match the subpanel’s amperage and the distance from the main breaker. 
  • Bury a grounding metal plate sized 2 feet wide and 10 feet long in the ground and connect it to the sub-panel with a grounding electrode conductor. 

All the alternatives may not work for all the regions. So, confirm it with your local electric codes and then approach them.

Steps to install a ground rod for a subpanel

Grounding a sub-panel with a ground rod is relatively easy. It is similar to the process of grounding the main panel. 

Here is a step-by-step guide to installing a ground rod for the subpanel:

  • Find a place that is at least 2 feet away from the building. Avoid areas with water pipelines, gas pipelines, and heavy rock areas inside the ground. 
  • Choose a high-quality ground rod to insert into the ground. Since the rod will stay for a long time inside the ground, you need a high-quality and durable rod that stays fine under the ground. 
  • The rod specifications can differ based on your region. For example, the US will have at least 2.4 cm long and ½ inch wide rods. 
  • Dig around 2.4 meters of ground and insert the ground rod into it. 
  • Clamp the rod’s upper end with one end of the grounding electrode. 
  • Connect another electrode end with the subpanel where all the ground and neutral wires are attached. 

The steps may feel complicated if you have never seen a grounding rod or an electrode conductor. 

So, you can hire a professional to do these connections and install the rod.

Avoid doing anything if you are clueless about the processes and materials. 

The subpanel will need a 4-wire feeder with a grounding connector between the main panel and the subpanel. 

Do not bond the neutral and ground in the subpanel.

Proper placement and maintenance of the ground rod for the subpanels

Proper placement of the grounding rod is important for its proper maintenance and effectiveness. 

The grounding rod should not be too far or close to the main panel. 

There should be only 2 feet between your building and the ground rod. 

The place you have chosen for the grounding rod should allow you to hammer the rod around 8 feet into the ground.

Avoid rocky or heavily compacted areas for your ground rod because the rod needs to go 8 feet deep into the ground. 

Though it is not always possible, you should avoid rocky areas. 

While installing the ground rod, ensure that you are not damaging anything under the ground, for example, water or gas pipes.

If you are unaware, call hotlines from utility companies. 

The utilities will take 2-3 days to reach your home and find the right ground rod location.

After installing the ground rod, ensure that around 6 to 8 inches protrude above the surface. 

Connect the ground wire to the subpanel’s grounding bus bar with a 6 AWG copper wire.

Sometimes, you may have to install two grounding rods for your subpanel, provided the soil condition is poor, and the electrical load of your house is high. 

Check the ground rod periodically for signs of corrosion or damage. Such problems should be solved right away.

Also, check the connection between the subpanel and the ground rod to ensure the tightness and security of the connection. 

How to test the effectiveness of a sub-panel grounding system? 

Once you have installed the ground rod for your subpanel, you must test its effectiveness by measuring the resistance. 

You can test the ground rod’s effectiveness with a clamp-on meter, a multimeter, or an earth electrode tester.

Clamp-on meter 

A clamp-on meter is an electronic machine that checks the current resistance for a multi-grounded system, not on an isolated ground rod. 

The meter can be easy to use but may not give accurate results. 

The meter gives readings in Ohms, the unit of resistance. 

Press the lever on the meter’s side to open the clamp and put the clamp around the grounding electrode conductor or over the ground rod’s top. 

Allow the clamp to close, and let go of the lever. 

Clamp the meter near the ground for better results.

Now, turn on the meter. Turning on the meter depends on the brand type.

Some meters will have a button with POWER or ON. Others have a dial to be set to Ohms. 

The clamp-on meter contains a screen for reading. Check the resistance reading on the screen. 

A lower number means the grounding rod is working better. 

Generally, the reading should not go over 25 Ohms. 

Multimeter

Using a multimeter can help in measuring the single ground rod’s effectiveness. 

Please turn off the power to the sub-panel and the connected circuits. 

Disconnect the devices or appliances, too, connected to the sub-panel. 

Now, connect the multimeter to the ground bus bar of the sub-panel. 

To test the measure of the resistance, touch the multimeter’s black probe to the ground bus bar and the other to the grounding electrode conductor connected to the ground rod.

Check the resistance reading and compare it to the range specified in the local codes. 

The ground rod works fine if it is lower than 25 ohms. 

Earth electrode tester

This old tester uses multiple probes and wires to access the resistance. 

So, using the tester will take longer than the above two users. 

Insert the ground probes at specific distances away from the ground rod. The probes are usually 1 foot long.

Keep inserting them unless only the top is visible.

Insert the furthest ground probe at a distance of 10 times the ground rod’s length. 

For example, if your ground rod is 8 feet, the furthest should be 80 feet. 

The second ground rod should be midway between the furthest probe and the ground rod.

The leads with the electrode testers will be very long, so they must reach the needed distance. 

Insert the three leads of the meter into the openings in the meter. 

The other end of one of the leads will be connected to the ground rod’s top, and the other two leads to each ground probe.  

Usually, it does not matter which lead you connect to the ground probe. 

But it would be better to connect the longest lead with the furthest ground probe. 

Now, you need to turn on the meter. 

Most testers will have a dial to set it to an ohm symbol or a mark mentioning “3 poles”. 

It means that 3 points have contacted the earth.

If the ground rods are working fine, the number on the reading screen will be below 25. 

To verify the reading, shift one of the probes 2 feet close to the grounding rod and note the reading again.

If all the readings are below 25, your ground rod works fine.

Troubleshooting grounding issues in the subpanel 

A ground rod in the subpanel is subject to various issues if done incorrectly. 

Here are some troubleshooting tips to examine the problem and solve them:

  • Begin with checking all the wire connections, the conductor, the bus bars, and the devices or appliances connected to the sub-panel. Examine and see if there are any loose connections or corroded wires. Tighten the loose wires and clean the corrosion with a wire brush.
  • Check the wire to find signs of fraying or damage. Replace them immediately.
  • Look for damaged signs in the wires connecting the ground rod and the subpanel. 
  • Check the electrode conductor and see any corrosion or other damage. Replace them immediately. 
  • Check the ground rod regularly to ensure that it is firm in its place and there are no corrosion or damages. Replace or repair if you find any problems with the rod.
  • Soil is an important factor while installing the ground rod. You should avoid rocky soil for the ground rod. Check the resistance of your ground rod to find out whether the soil is good for it. 
  • Test the grounding system with an earth electrode tester, a digital multimeter, or a clamp-on tester. It ensures that your ground rod is fine and has no problem. 

Final thoughts

The subpanel is installed when the main panel is filled up, and you need more circuits. Since the subpanel works like the main panel, it will need a ground rod for grounding. A ground rod protects your house from sudden surges, short circuits, and lightning strikes by diverting the extra current and the static discharge to the ground. You do not need a ground rod if your subpanel is in the same building. 

The grounding in the main panel will be enough. But you will need one for the subpanel in the detached building. Sometimes, you may need two, based on the number of panels. Maintain at least 6 feet of distance between the rods. To install a ground rod, dig a deep hole around 8 feet, insert the ground rod, connect the rod’s top end with the grounding electrode, and the electrode’s other end goes to the sub-panel.

You can check the ground rod’s effectiveness by measuring its resistance with a multimeter, an earth electrode tester, or a clamp-on tester. Properly place and maintain the ground rod and follow the troubleshooting tips if you face any grounding issues.

Can I use two ground rods?

Yes, you can use two ground rods. Generally, the NEC recommends one rod for one sub-panel. So, if you have two subpanels, you can install two ground rods.

Can I wire a subpanel with three wires?

In the 3-wire system, you have two hot and one neutral wire. The grounds and neutrals are connected to the sub-panel. Such a setting was applicable before 2008. Now, you need four wires where you have separate ground and neutral.

Reference: Ground Rod Wikipedia

Grounding Prong Broke Off: Hazards + fix

Written by Arthur Smith in Electrical Safety,Electrical Basics,Electricals 

If you use a 3-prong or a 4-prong plug, one prong will be for the grounding. It makes an alternative path for the current to flow during a ground fault or a short circuit. So, what happens if this prong is broken? 

The grounding prong protects against sparks and surges. If broken, you become extremely vulnerable during short circuits and sudden surges. Replace the prong with a new plug or repair it with a soldering iron. The device may function without it, but the likelihood of getting shocked is very high.

If you are a beginner, you might panic when you see a broken prong. This article covers everything related to a broken ground prong in this article and the necessary steps to take.

Prong

Understanding the importance of grounding prongs in electrical devices

In older times, most people used to have a 2-prong plug where you have only the live and neutral connection. 

But nowadays, people use 3-prong and 4-prong plugs.

In a 3-prong plug, there wasn’t a dedicated ground wire. 

There were two hot and one neutral wire, and the neutral acted as the grounding. 

In a 4-prong plug, you have a dedicated grounding prong. 

The grounding prong gives the electricity an extra path during a short circuit or ground fault. 

As a result, the current flows through the grounding instead of your body and saves you from getting killed. 

When you plug in the appliance, the current will flow from the hot wire through the appliance and return to the neutral wire. 

When there is an interruption in this complete circuit, for example, a loose connection or damaged wires, the electricity will need a route with the least resistance and flow through the grounding. 

Traveling through the ground prevents the current from flowing through your body. 

Without the ground prong, you are vulnerable.

It should be connected to a metal grounding rod underground for proper grounding. 

The rod gives a low-resistance path to the ground and helps dissipate the excess current during a fault or short circuit. 

So, the third prong of the plug is very important in terms of safety. 

Hazards of operating the electrical devices with a broken grounding prong 

The grounding prong is supposed to provide safety from ground fault or electrocution. 

It prevents spikes, short circuits, and surges from creating electrical accidents and fire hazards. 

Without the ground prong, you become vulnerable. 

So, operating an electrical device with a broken ground prong is dangerous. 

The plug will work if it still contains the live and neutral prongs. 

But the broken ground plug becomes dangerous once broken, increasing the risk of surges and sparks. 

The broken prong can no longer protect you from fire or electrical accidents during such conditions. 

You can keep the ground prong if there are no surges or sparks. 

But you won’t have peace of mind using a broken grounding prong. 

You will always be under constant stress about the prong. 

In such a condition, you can use a 3-prong adapter. 

Connect the plug with the broken ground prong to the adapter and then plug in the adapter to the outlet. 

If you connect the adapter’s metal tab, it can give the grounding your plug needs. 

However, such a setting will not work for devices with metal housing or plastic outlet boxes. 

Additionally, the adapter cannot give you the desired ground connection if the outlet is not grounded. 

The adapter’s tab will connect to the outlet’s ground connection; without that, the tab will be useless. 

Except for these exceptions, the 3-prong adapters are useful to solve a problem like a broken grounding prong. 

Without the adapter, you must replace the plug with a new one. 

How to identify a broken grounding prong on the electrical device?

When you have a broken ground prong, you need to identify it to fix it. 

Without a proper ground connection, there is a risk of electrocution during a fault or short circuit. 

But how will you identify a broken grounding prong? Here are some signs:

  • You will sometimes feel a mild shock whenever you turn on the device and accidentally touch its metal surface. The grounding prong prevents this shock from happening. 
  • You will sometimes see sparks in the plug whenever you turn on the device. These sparks can cause a short circuit if the grounding is broken.
  • If the prong is broken, your device will not function properly or suddenly stop functioning.

For confirmation, try the following things:

  • Unplug the device and check the prong closely. 
  • Once you have noticed the broken prong, test the device with a non-contact voltage tester to confirm the problem. 
  • The prong is broken if the tester does not give a proper grounding connection. 
  • Check the cord, and look for signs like fraying, cuts, or wire exposure from the insulation. 

Common materials and tools required for repairing the broken prong 

You will need the right materials for easy installation to replace the prong. 

Here are some tools:

Steps to fix a broken grounding prong on electrical devices

To fix a broken grounding prong, you need to replace the prong or repair it. 

Repairing a broken prong can be risky because it is not guaranteed to work, or using it can be safe. 

Once the grounding prong breaks, the ground safety does not remain as effective as before. 

But you can still try it. Below are the steps to both repair and replacement. 

Replacing the prong 

If you want to replace only the broken prong without changing the whole cord, here are some steps:

  • First, turn off the power at the breaker and the outlet and unplug the appliance. 
  • Using a plier or wire stripper, remove the prong from the plug. Cut out the wire close to the prong. 
  • Strip off the cord and expose the three wires insulated with green, black/red, and white rubber.
  • Strip off ½ inch of the insulation to expose the metal wire part of the three wires.
  • Buy a new replacement prong to fix the old one. Get one from any hardware store. The prong will have a screw at its back to connect to the wire. 
  • Open up the replacement prong and insert the wires into their respective screws. 
  • Connect the black/red wire to the brass screw, the white wire to the silver screw, and the green wire to the green screw. 
  • Tighten and secure the connections and screws. 
  • Once you have replaced the prong, connect the plug to the outlet and check the appliance. 
  • Use a multimeter or a voltage tester to ensure the cord is properly grounded. 
  • If everything is fine, you can continue using it. Otherwise, you must replace the cord or call an electrician.

Repairing the broken prong

Though replacing the prong is preferred over repairing the broken one, you can still do it if it is only slightly broken. 

Below are the steps:

  • Turn off the breaker and unplug the appliance to examine the prong closely. 
  • If the prong is badly broken, you have to replace it. But if there is a slight or partial breakage, you can repair it. 
  • Use pliers to straighten the prong as much as possible. 
  • Reattach the broken prong with the soldering iron if the breakage is more. Heat the tip and apply it to the broken prong and the metal of the cord. Use a small amount of solder to reattach the prong.
  • Make sure not to apply too much heat. Otherwise, the wire insulation will be damaged. 
  • After reattaching, straighten the prong slightly with pliers and plug it into the outlet. Check if it is working. 

You can try this, but still, replacement is a better option than repair.

What happens if the broken ground prong is stuck in the outlet?

If your plug’s grounding prong has broken and got stuck inside the outlet, you have two options:

Removing the stuck prong 

If the prong is not stuck too deep inside the outlet, you can remove it and bring it out. 

Turn off the breaker and use needle-nose pliers to grab the prong. Use serrated jaw pliers.

Pull the prong out slowly and gently. 

Some people end up breaking the slot while trying to remove the prong. So, be patient and gentle. 

Remove the outlet

If the broken prong is not coming out of the outlet, you have to remove the outlet. 

Once you get hold of the outlet, you can easily take out the broken prong. 

Push the prong out from the back of the outlet. 

Call an electrician or buy a new outlet if your prong still doesn’t come out. 

Safety precautions to take when repairing a broken grounding prong 

It is always best to leave electrical work in the hands of professionals. 

They will follow the right codes and rules, have the right tools, and do things faster. 

But if you want to do it yourself, here are a few safety precautions that you must follow:

  • Turn off the power at the appliance or device’s circuit to avoid electrocution.
  • Unplug the cord from the outlet before working. 
  • While working with the grounding prong, use the right tools, like electrical tape, pliers, wire strippers, etc., to make the work easier and faster.
  • If you need to climb higher, use a wooden ladder instead of a metal.
  • Wear protective gear like goggles and insulated gloves while working. 
  • Always use a voltage tester or a multimeter to confirm no power is running before you start working. 
  • Use a replacement prong that suits the appliance. Otherwise, it won’t run. 
  • Test the device after you have replaced it to ensure that your wired prong is working correctly. 

Replacing vs. repairing a broken grounding prong: Pros and cons

When a grounding prong breaks, you can replace or repair it. Replacement is by far the best solution. 

A broken grounding prong means you no longer receive the safety of the ground connection. 

During sparks or short circuits, the chances of electrical accidents increase.

In the case of repair, you might have to involve soldering the iron. 

Soldering can be dangerous if you haven’t done it before. 

Let’s share the pros and cons of both.

Replacement: Pros

  • Replacement is the safest option as you can get back the grounding of the appliance and use it further. 
  • Replacing the prong is affordable.
  • Replacement is a long-term solution. A new prong will last longer than a repaired prong. 

Replacement: Cons 

  • There are no cons to replacing the prong except that you need money and must wait to buy and replace it. 
  • In contrast, a repair can be done without waiting if you know the right process.

Repair: Pros 

  • Repair is quick, and you don’t have to buy any new prong to fix the broken prong.
  • You can quickly repair and fix the prong if you need the appliance immediately. 

Repair: Cons 

  • Repair is a temporary fix. Your grounding prong may break again after using it for some time.
  • It may not give you proper safety like a new prong can provide. It depends on how well you have repaired it. 

There is no safety or surety in repair, but it is fine for short-term and immediate results. For a long-term and safe solution, I always prefer replacement over repair.

Testing electrical devices for proper grounding after repairing a broken prong 

Replacement is always the best option. 

But if you have repaired your broken prong, testing the device and noticing its behavior is very important. 

To test your electrical device after repairing the prong:

  • Check that you have repaired the prong very well. 
  • Plug the prong into the outlet and test the appliance. 
  • Observe for sparks in the outlet. 
  • Use a multimeter or voltage tester to check the continuity of the prong and the ground pin of the outlet.
  • Check the voltage of all the prongs in the cord.
  • See if the appliance is running properly and examine for overheating. 
  • If you doubt it, turn off the device and call an electrician for a checkup.

Additional tips for maintaining the electrical devices and preventing grounding prong damage 

Even though you can repair or replace a damaged prong, you must take care of the electrical devices and prevent such damage. 

Here are some tips for caring for the devices and preventing prong damage:

  • Always unplug the cord safely. Grip the plug and not the cord.
  • When running the electrical devices, check for loose connections beforehand to avoid future damage. 
  • While plugging the device, insert the plug firmly and patiently without applying any force. 
  • Use the right outlet that suits your device plug. 
  • Keep your cord untangled to avoid unnecessary stress to them. 
  • Replace damaged plugs as soon as possible.
  • Avoid keeping wet materials near the devices and wires. 
  • You can use surge protectors for bigger appliances to protect them from sudden power surges. 
  • Refrain from overloading your circuit with too many appliances. 
  • Avoid rough handling of electrical devices. 
  • Regularly clean and maintain your devices to increase their lifespan. 
  • Store your devices properly, especially when you are not using them. Please keep them in a dry place and avoid damp places. 

Final thoughts 

The grounding prong gives the current an alternate path to flow during a short circuit. As a result, you get saved from short circuits and fire hazards. A broken or missing ground prong means the plug is no longer grounded. So, the risk of electric shocks and sparks increases. 

That is why it is better to replace or repair the prong quickly. Replacement is the best option because it is safe and a long-term solution. But if you want an immediate fix, the repair is fine. 

After you have fixed the problem, test your device to see if it behaves normally like before. If not, hire a professional for a checkup. Follow the safety precautions and additional tips to remain safe and prevent prong damage.

Can I remove the broken ground prong?

Just because some plugs have two prongs doesn’t mean you can remove the broken grounding prong from your 3 or 4-prong plug. Removing makes you vulnerable and increases the chances of electric shocks and fire hazards. So, replace the plug. 

Are adapters safe?

Though you can use adapters, they are seldom safe, especially for devices with metal housing, plastic wall box outlets, and ungrounded outlets.

Reference: Power cords Wikipedia

Line Vs Load Wire: Meaning, Difference & Usage

Written by Arthur Smith in Electrical Wiring,Electricals 

The line and load wires are important parts of the switches and outlets. It is important to distinguish them for safer wire connections. But how do you differentiate them? That’s what I will share in this article. 

The line wire carries power from the main source to the outlet, and the load wire transfers it to the connected devices in the circuit. The line wire runs from the service panel to the first device, while the load wire moves the power from the first to the second, and so on.

 As a beginner, it will be common for you to confuse and mix the two. So, our article represents the difference between the two wires, how to identify them, and their applications. 

Understanding the basics of electrical wiring and circuitry 

Electrical wiring and circuitry are the backbones of electrical systems. 

The electrical circuit is a constant loop that carries current from your house’s main panel and transfers it to the appliances throughout the house. 

Multiple switches, outlets, fixtures, and other appliances can be connected to a single circuit. 

The three main wires used in electrical wiring are hot, neutral, and ground wires. 

A hot wire carries current from the main power source, and the neutral wire returns it. 

The hot wire is generally black or red, and the neutral is white.

The current enters the circuit loop through the hot wire and returns through the neutral wire.

The main service panel has a bonding wire connected with a metal water pipe and a ground wire attached to the metal grounding rod under the ground.

The ground wire doesn’t carry current except during short circuits when the excess current needs an alternate path to flow. 

The ground wire either remains bare or green in color.

Two more types of hot wires are line and load wires. The line wire is always hot, whereas the load wire is hot after the switch is turned on to power the device.

The line wires carry current from the power supply to the outlet. The load wire carries the power to the connected appliances. 

Line vs. Load wires: Definition and difference

The line wire is called the upstream wire. It carries the current from the main power source to the receptacle or the outlet. 

The line wire is always hot when it carries the power from the main source.  

The load wire is the downstream wire that carries the current from the outlet to the connected appliances. 

The load wire forms a complete circuit after carrying the current to the connected appliance. 

When you wire the low-voltage circuits to power the doorbells and landscape lights, the term LINE refers to the circuit parts in the full household voltage.

It helps differentiate them from the low-voltage wiring and devices used after the stepped-down voltage in the transformer.

On the contrary, the load terminal describes the electricity demanded by the device or appliance of a circuit. 

Circuits 

All the switches, fixtures, outlets, and other appliances are wired with a single circuit in multiples. 

The line wire will run from the panel to the first device, and the load wire will run from the first to the second. 

The line will send the power from the first device to the second device, and the load wire will carry it to the third device. 

The load is also referred to as the magnitude of the energy consumed by the appliances on the circuit breaker. 

GFCI outlets 

The line and load outlets have a special difference in terms of the GFCI outlets. 

GFCI means Ground Fault Circuit Interrupter. 

These outlets trip whenever they sense danger and prevent short circuits and electrocution. 

The GFCIs have two screw terminal pairs. One pair is marked as LINE, and the other as LOAD. 

Connecting to the line terminals causes the outlet to provide GFCI protection only for the outlet. 

Connecting the line and load terminals with two electrical cables or two sets of pigtail wires will protect the outlet and other standard outlets downstream in the circuit. 

Service entry and main panel 

The line side of the electric meter will receive the incoming feed from the utility company. 

The power will exit the meter on the load side and feed the disconnect or the electrical panel on the line side. 

Importance of differentiating between line and load wires in electrical works

As mentioned earlier, the line wire carries the current from the power source and transfers it to the outlet. 

The outlet will carry this current through the load wire to the connected devices. 

There is another third wire called the ground wire. 

It is usually green or bare copper wire. 

The ground connection works with the line wire to prevent fatal electric shocks during a short circuit. 

A poor connection between the line and load wires of the GFCI socket will make the circuit breaker useless and create a shock hazard. 

Another situation where the GFCI becomes useless is mixing up the two wires. 

If you are unaware of the wire identification, you may mix up the load and line wires in the circuit as a beginner.

As a result, the GFCI will no longer be able to protect your breakers or outlets. 

The GFCI has a breaker that interrupts the current and trips off during a sudden surge. 

Interchanging the load and line wires will eliminate this interruption. 

Though interchanging the wires does not affect the outlet, the protection becomes ineffective. 

Swapping the wires makes a direct connection to the appliance, which makes the switch useless.

That is why it is very important to identify the wires and understand the differences before attempting any electrical wiring connections. 

How to identify the line and load wires in the electrical circuits

There are multiple ways to identify the line and load wires. 

Generally, the black insulated wire is the line wire, and the load is the red wire. 

Many other ways exist to identify them, like the wire size, placement, or with a voltage tester, multimeter, and neon screwdriver. 

Below, I have described how I have attempted several methods to identify the line and load wires:

Wire colors

Specifying both wires through the color codes is the simplest method. 

The wires are insulated with rubber to save us from electrical shocks. 

The rubber insulation comes with a color to differentiate the wires.

The black insulated wires are typically the line wires, and the red insulated wires are the load wires. 

But the problem occurs when the colors are the same for both wires, or the colors will be interchanged because the color doesn’t have anything to do with the wire. 

So, how will you identify the wires? Look for their positions. 

Wire positions 

The line and load wires have different positioning due to their functions. 

Since the line wire supplies power, it will typically be at the switch’s bottom.

On the contrary, the load wire will be at the top of the switch.

Here also arises confusion if:

  • You are unaware of which part of the switch is the top or the bottom
  • The wires are not connected to the switch. 

So how will you accurately identify them? The next few parts will elaborate. 

Using a voltage tester 

Using a voltage tester will help you identify the accurate wire. 

A non-contact voltage tester will make a beeping sound or illuminate light near electricity or voltage.

Only the line wire will carry the current when idle or the power is off.

Once the voltage tester touches the energized wire, it will beep or light up. 

I always prefer a non-contact voltage tester to identify any wires. 

They are safe, and you don’t need to touch any wires.

To use a voltage tester properly: 

  • Wear insulated gloves, turn off the switch, and unscrew the outlet’s cover plate. 
  • Turn the voltage tester on and pass it to the switch’s bottom and top terminals. 
  • Once the voltage tester contacts the line wire, it will beep or illuminate, while there will be no beep or lighting near the load wire. When the switch is off, only the line wire will carry current.
  • If there is any third wire, green or white, it will be the ground or neutral wire. These wires, too, won’t give any reading. 

Using a multimeter 

Using a multimeter is another way to receive accurate results about wire identification. But here, you have to touch the wire insulation. 

Here are the steps: 

  • Turn off the power at the breaker. 
  • Set your multimeter to the highest voltage. Mostly, it is 250 VAC. 
  • Touch the multimeter’s black probe to the ground wire and use the red probe to test the wires. 
  • Touch the red probe with the black wire and then the red wire. 
  • The one wire that shows a voltage of 120V or 240V is the line wire. The other wire that does not show any voltage is the load wire. 
  • After turning the power off, only the line wire carries voltage, not the load wire. 

Using a neon screwdriver

You can use a neon screwdriver if you do not have a voltage tester or a multimeter. 

It works similarly to the voltage tester. 

Once the screwdriver contacts the line wire, it will light up or beep. 

Below are the steps:

  • Turn off the power at the circuit, wear insulated gloves, and unscrew the electrical outlet. 
  • Connect the wires to the tester screwdriver from the top and bottom terminals in the outlet. 
  • You can also unscrew the wires to connect the wires directly to the tester or touch the metal end of the screwdriver with the terminals.
  • Place your thumb on the screwdriver’s top and let the metals contact for a reading. 
  • A glowing light or a beeping sound indicates a line wire, whereas no light or beeping means it is the load wire. 

Common mistakes to avoid when working with line and load wires

Sometimes beginners will make mistakes while attempting electrical wire connections. 

Working with line and load wires can be dangerous. So, you must avoid making the following mistakes:

  • Most people forget to turn off the circuit. Before you start working, turn off the circuit and confirm that no power is running with a voltage tester or multimeter.
  • Always use wire compatible with the circuit and can carry the current running through it. 
  • You must identify the load and line wires. The load wires may not carry current after turning off the circuit, but the line wire carries. Accidentally touching them can shock you. 
  • Avoid mixing up the line and load wires, especially in a GFCI. Mixing them will deactivate the protection provided by the GFCIs. 
  • Swapping the line and load wire connections also makes the line wire directly connected to the outlet or the appliance. As a result, the switch becomes useless and disturbs the circuit. 
  • Ground the wire connections properly. Without grounding, you can receive electric shocks during a short circuit. 
  • Avoid reverse polarity. The wires must be connected to their respective terminals. 
  • Avoid overloading the circuit to prevent breaker tripping and fire hazards.  
  • Failing to follow the local code causes safety hazards. Whatever connections and installations you make, obey the local building code for safety and compliance.

Just because you can do things yourself doesn’t mean you should avoid an expert’s advice. You must always consult an electrician before approaching any electrical work yourself. 

How to connect the line and load wires to the electrical circuits?

The line or live wires will have three wires – hot, neutral, and ground. 

The hot and neutral wires will be insulated, and the ground will usually be bare. But sometimes, it is insulated with green rubber. 

The load wire will conduct the electricity from the device to the other connected devices in the house.

The load wires also have three wires – hot, neutral, and ground. 

The load wire becomes a line wire when it reaches the next outlet device in the circuit breaker. 

The pattern continues. 

Connecting the load and line wires depends on which circuit you connect them to and its components. 

Below are some general steps you can follow for wiring:

  • Turn off the breaker to avoid electrocution and check for power running with the help of a voltage tester. 
  • You must identify the line and load wires to connect them if idle. The line will carry the current from the main power source to the circuit, whereas the load wire will carry the current from the circuit to your appliance. 
  • If the wires are idle, use a voltage tester, multimeter, or neon screwdriver to identify them. The line wire will have voltage despite being disconnected.
  • Once you have identified the wires, strip the insulation of both the wires around ½ inch with a wire stripper. 
  • Connect the wires properly based on the circuit type and the internal components. For example, if the circuit is for a simple switch, connect the line wire to one switch terminal at the bottom and the load wire to the other terminal at the top. For an outlet circuit, connect the line wire to the brass terminal and the load wire to the silver terminal. In a light fixture, connect the line wire to the fixture’s black/wire and the load wire to the fixture’s white wire. 
  • Once the wire connections are complete, secure the connections with wire nuts or connectors. 
  • Turn on the power supply and check the connections you have made in the circuit. If it doesn’t work, turn off the power and recheck the connections. If you have doubts, call an electrician.

Types of electrical devices and equipment that utilize line and load wires

The line and load wires are used in various appliances and devices, and below is a small list of them:

  • Circuit breakers 
  • Switches 
  • Outlets
  • Light fixtures
  • Motors 

In these appliances, the line wires connect to the power supply to carry power. 

The load wire will take this power to the connected devices. 

In the motors, the line wire connects to the power supply, and the load wire connects to the motor for energy to drive. 

Line and load wires in the residential vs. commercial electrical systems 

You can use line and load wires for both commercial and residential purposes. 

In both the electrical systems, the line wire helps bring in the power from the main power supply.

In the residential electrical system, the load wire provides power to your house’s different house appliances, lights, and other devices. 

Besides, the residential systems’ voltage is generally 120V and rarely 240V. 

So, the wirings are meant to handle the lower loads in the houses. 

In commercial systems, the load wire provides power in a wider range, like HVAC systems, computers, machinery, servers, etc. 

The line and load wiring in commercial electrical systems are made to handle higher loads with 208V to 480V. 

Due to the higher loads, the wiring is more complicated than the residential. 

Whatever the electrical system, you must properly plan the wiring for safety and compliance. 

The wiring connections you make must follow the rules and regulations of the local building codes. 

Proper safety precautions when handling line and load wires

As a beginner, if you decide to handle the line and load wires, you need to follow a few precautions for safety purposes:

  • Always plan what repair you will do and what tools you need. 
  • Use a wooden ladder instead of metal if you need to climb higher.
  • Use rubber-insulated tools for electrical work. 
  • Always turn off the switch at the circuit and check with a voltage tester to confirm that no power is running. 
  • Refrain from overloading your outlet with too many heavy appliances. 
  • If you have stripped any wires, ensure no wires remain exposed as it increases electrocution risk. Always cover them with wire nuts or connectors and secure them with wiring or masking tape.
  • Read the electrical hazards and memorize the repairing techniques before attempting them. 
  • Know the difference between the wires. Use a voltage tester.
  • Whatever wiring connections you plan to make must be done by following your region’s building codes.
  • Wear protective gear, like goggles, insulated gloves, and rubber shoes. 
  • Ensure the wall, floor, hands, or surrounding areas are not wet. 
  • If you are in doubt, contact a professional for help.

Final thoughts 

While working with electrical wiring, identifying the wires is crucial to avoid dangerous mistakes. The line wires carry power from the power supply to the outlet. The load wire carries this power from the outlet to the connected devices. You can identify the wires by their color and position. The line wires are black and connected at the bottom of the switch terminal. 

The load wires are red and connected to the top of the terminal. Conditions like the same wire colors or idle wires make identification challenging. That is when the voltage testers, multimeters, and neon screwdrivers come to the rescue. The line wire always carries current despite turning off the circuit. But the load wires won’t have any voltage.

So, whenever you touch the line wire with the multimeter or screwdriver or bring the voltage tester close, the multimeter shows readings. The screwdriver and voltage tester beep or illuminate. Follow the safety precautions and avoid mistakes for a safety wire installation.

What happens if I swap the load and line wires?

The normal switches won’t have a problem as they supply power and stop the voltage to a device. In a GFCI, its protection quality becomes useless.

Is the line wire hot or the load wire?

The line is always hot as it will carry current from the main power supply. The load wires become live only after the switch is turned on to pass current from the line wire.

Reference: Electrical Wiring Wikipedia

How To Make A Switched Outlet Hot All The Time?

Written by Arthur Smith in Electrical Outlets and Switches,Electricals 

The switched outlets are the wall switches that control the power of a receptacle. It means you can turn the outlet power on or off anytime. But is it possible to always turn a switched outlet hot? Let’s figure it out.

To turn a switched outlet hot all the time, remove the outlet plate, cover the red wire with a cap, connect the white wires to the other white wires and the black to the connector’s hot side. Make sure to check the wire connection, tuck in the wires, and reinstall the plate. 

Only a few minor wire connections can help you always convert the switched outlet hot. If you are a newbie, this guide will help you know the steps to make a switched outlet hot, the reasons to do it, and common issues you may face during the wiring. 

Understanding switched outlets 

A switched outlet is an outlet that you can control with the help of a wall switch to turn it ON and OFF whenever needed.

In a switched outlet, one slot will always have power. A wall switch will control the other slot. 

A switched outlet is, therefore, also called a duplex or half-hot outlet. 

You can also turn the entire outlet ON and OFF from a wall switch. 

Still, only one of the two plug-ins in the outlet will be powered permanently for other usages. 

A switched outlet is common in offices and modern buildings, especially living rooms, to control the lamps and fans. 

You can install these outlets in the new buildings or add them to your existing outlets. 

Before you install a switched outlet in your home, consult a licensed electrician for local code permission. 

When you modify the existing outlet, you don’t have to replace the old outlet. 

The square, decora-switch, or semi-round type can be used as a switched outlet. 

However, if you have a GFCI, you must replace the entire outlet to turn it into a hot one.

If you have purchased a new outlet, it should match the circuit breaker’s ampacity. 

Reasons for making a switched outlet hot all the time

When you turn a switched outlet hot, you no longer need to control the outlet with a switch. 

Hot outlets can have many benefits, especially for those devices that constantly run, such as refrigerators. 

I have one switched outlet for my refrigerator. 

There are many reasons for making a switched outlet hot all the time, and below are the major reasons:

Convenience 

Some devices in the houses will need to be powered constantly, for example, a clock, a refrigerator, or a charger. 

So, turning it on and off too much can be annoying and inconvenient. 

If you turn a switched outlet to hot and connect these appliances to the outlet, you do not have to turn them on and off too often. 

You can keep these appliances powered without worrying about turning on the switch. 

Safety 

Sometimes, keeping a switched outlet off can be a safety hazard. 

Since one outlet slot remains hot, you might connect a few appliances to the outlet that must be run constantly. 

For example, a sump pump or a refrigerator. 

In such a condition, if you suddenly turn the outlet off, the device connected to the outlet to receive power will damage and lead to serious issues. 

Turning the outlet hot all the time will prevent these safety hazards and keep your devices safe. 

Compatibility 

Some appliances are not meant to connect to the switched outlets. 

In such a condition, it would be better to turn the outlet hot to ensure these appliances run properly. 

Safety precautions when working with electrical outlets

Working with electrical outlets can be dangerous. 

That is why most house owners leave it to the hands of a licensed electrician. 

But if you have experience, here are a few precautionary tips for you:

  • I always turn off the power at the breaker before working with any outlet, and sometimes the main breaker for extra precaution. You should also turn off the circuit breaker powering the outlet, if not the main breaker.
  • After turning off the breaker, use a voltage tester to ensure no power is running in the outlet. I use a multimeter.
  • Avoid working around wet areas, and do not touch any electrical parts with wet hands. 
  • Use the right tools while working with the electrical outlets.
  • Avoid using frayed cords, damaged insulation, and broken plugs. 
  • Avoid overloading the circuit with too many appliances. 
  • Wear protective gear like goggles and insulated gloves. 
  • Do not touch any energized outlets. Check the outlet’s voltage with a multimeter, turn it off, and then work with it.
  • If you are in doubt, hire a professional to fix the outlet. 

Basic principles of electrical wiring

While working with electrical outlets and wiring, you should follow a few principles:

  • While choosing wires for the outlet, keep the length to a minimum level to avoid resistance and voltage drops. 
  • Ensure to connect the wires in the outlet tightly. Double-check if needed.
  • Select the right wire size and type that matches the current-carrying capacity of the outlet’s circuit breakers.
  • The electrical wiring should be well-insulated to prevent the electrical current from flowing through unindented paths. 
  • Connect the electrical wirings with the correct polarity.
  • The electrical wiring must ensure the continuity of the entire circuit. 
  • After you finish the wiring, ground the wire properly to avoid short circuits and electrical accidents. 
  • Before you wire an outlet, you must plan the wire route and the connections. 

Tools and equipment required for turning a switched outlet hot all the time

Turning a switched outlet hot will need a few wire connections. 

Below are some materials that you will need to turn the switched outlet hot:

  • Screwdriver
  • Wire nuts
  • Pliers
  • Voltage tester 
  • Electrical tape 
  • Wire cutter or stripper
  • A new outlet, especially if you have a GFCI split receptacle

Steps to make a switched outlet hot all the time

Converting a switched outlet to hot is simple, provided you follow the steps properly.

Let’s jump into the steps I followed to turn a switched outlet hot all the time: 

Step 1: Turn off the power

Start with turning the power off at the circuit breaker. 

Turning the power off at the circuit breaker will stop the electrical flow in the cables and prevent electrocution while working.

Use a voltmeter to ensure the wires have no power left. 

Sometimes, the power keeps running despite turning off the circuit. So, use a voltmeter or a voltage tester to confirm it. 

Step 2: Remove the cover plate

Remove the outlet’s cover plate to look at the wire connections. 

You will find two screws holding the outlet in its place. 

Unscrew the screws to pull out the outlet from its place.

You will see two wires – white and black wires.

Unscrew the top half of the outlet from the bottom half and remove the faceplate by unscrewing the screws holding it in place. 

Step 3: Cover the red wire with a cap

There will be two wire types to power the electrical outlet – white and black wires. 

The black is the hot wire, and the white is the neutral wire. 

Additionally, there might be another red wire, which serves as the switch wire. 

The switch helps to turn the outlet on and off. 

Seal the red wire after ensuring no power is left in the wires. 

Seal the wire and push it behind the box. 

After you disconnect the switch, tape the wire ends separately. 

Step 4: Arrange the wires correctly 

The white wires in the outlet box must be attached to the other white wires. 

Remove the white wire from the box’s connector outlet with a screwdriver. 

The black wires will be attached to the hot side of the connectors. 

You can also use a pigtail. 

If you have a GFCI split receptacle, you may need to replace the receptacle. 

Use a wire nut or pigtail to connect all the black wires.

Use a separate nut to attach the white wires similar to the black wires. 

Electrical materials are difficult to attach to the old sockets. So, use a modern electric plug. 

Screw the wires in the right receptacle clockwise with a screwdriver. It will keep the wires from slipping out of the outlet. 

Step 5: Disconnect wires from the switch 

The switched outlet is converted to a hot outlet. 

Now you need to replace the switchboard’s wall switch. 

Snip the linked wires after removing the switch powering the outlet. 

Use a small wire nut to cap the hot and neutral wires of the switch. 

Then tuck the wires inside at the rear. 

Put the switchboard away using a switch cover. 

You can get the exact size of the real switch and easily install them. 

Instead of the switch cover, you can leave the switch in place and use it as a dummy switch. 

How to replace a switched outlet with a standard outlet?

A switched outlet means a half-hot outlet. You are turning it into a full hot outlet. 

If you want a normal outlet, replace the switched outlet with a new one or reconfigure the wires properly. 

Here are the steps for the replacement:

  • Turn off the power at the circuit breaker. 
  • Remove the cover plate and check it with a non-contact voltage tester to ensure all the power is dead. 
  • Remove the outlet from the box and pull it out. Take a picture or remember the wire connections. You will need it to rewire the new outlet. 
  • Disconnect all the wires from the old outlet with the help of wire cutters or strippers. 
  • Put the new outlet and connect the wires to it. The black wire will be on the gold or brass terminal, the white wire on the silver terminal, and the ground or bare wire on the green screw terminal. 
  • Tuck the wires back into the box and attach the new outlet box.
  • Replace the cover plate and turn back the power. 

To reconfigure the wire connections, here are the steps:

  • Turn the power off, remove the faceplate, and check the wires with a voltage tester to ensure no power runs. 
  • Unscrew the outlet box and take it out. 
  • Identify the wires first. The switched outlet will have a black or red wire connected to the brass screw and a white wire on the silver screw on the same side. Another black or red wire will be capped off and unattached to the outlet. 
  • Disconnect the wires of the switched outlet, remove the capped wire, and connect it to the other black or red wire with a wire nut. It will make a constant circuit and give power to both outlets. 
  • Connect the white wire to the silver screw on the new standard outlet and the black wire to the new outlet’s brass screw. 
  • If your new outlet has a ground screw, connect the green wire.
  • Push the wire back into the box, screw the outlet, and put back the faceplate.
  • Turn the power back and check with a voltage tester to ensure the power is running.

Since outlet wiring is complicated, you can always hire a professional for installation and wiring.

Electrical works are dangerous, and mistakes can cause accidents and expensive damages.

Common issues when making a switched outlet hot all the times

When you turn a switched outlet hot, you disconnect the switch and link it to a constant power source. 

The process is beneficial in many ways, but you will face a few issues:

  • While working with electricity, there is always a chance of electrocution. Turning a switched outlet hot increases the risk of electrocution and other hazards. 
  • When an outlet is constantly hot, it already has a heavy load. If the switched outlet gets overloaded, it can trip the breaker more frequently than the normal outlets and breakers.
  • A hot outlet will consume more energy than the other outlets because it always remains energized.
  • Wiring problems can create serious electrical issues in the hot outlet. The risks of accidents are more in the hot outlets because it no longer remains under any switch’s control. 
  • Some appliances do not perform well with hot outlets. As a result, there arises a compatibility crisis. 
  • Any electrical work you do must obey the local codes. When you turn a switched outlet hot, you must ensure that it is allowed in the building code of your region.

Troubleshooting tips for electrical outlet issues

Any kind of electrical outlet is prone to creating issues if circumstances are created.

If your outlet is not working as expected, here are a few things you should check for troubleshooting the problems:

  • If your outlet is not working, check the other outlets to see if they are working. Plug in other appliances to this outlet and other outlets to confirm whether the appliance or the outlet is the issue. 
  • If no outlets are working, you might have a tripped breaker. Check the breaker and reset it if it has tripped. 
  • Check the outlet for wire connections. Loose connections or frayed wires can cause issues like outlets not working or becoming hot. 
  • For loose connections, tighten the wires. If the wires are frayed or damaged, replace them with new ones. 
  • The outlets have metal contact points inside the device that grips the hot, neutral, and grounding prongs. Check that these contacts are in good condition. If they have worn out, you should replace the outlet. 
  • See if the outlet has cracks in its body. Replace them immediately. 
  • The outlet matching should match the circuit. You can use a smaller outlet for a larger circuit, but the opposite can create issues. If you have a larger outlet for a smaller circuit, it can result in tripped breakers. Check the rating and replace the outlet. 
  • The GFCI outlet will trip if it senses an issue. Check the outlet and see if it has tripped. If the problem persists after resetting, a ground fault might need an electrician’s attention. 
  • If you still cannot troubleshoot the problem, call an electrician. 

Hiring a professional electrician for assistance 

Working with electrical outlets will always have dangers. So, hiring a professional to deal with it is always best. 

A professional will detect and solve problems correctly with the right process. 

If you want to turn a switched outlet hot, professionals can do it correctly and faster with the right tools and equipment. 

The professionals have proper training in these things. 

So they can identify the wires and where to connect which wire for turning a switched outlet. 

You can also do it. But without enough experience, you might make mistakes in the first few steps and incur expensive damages. You do not expect this from a professional.

As a result, the work is genuine, to the point, and faster. 

Since the professionals are trained, they have vast knowledge about the building codes. 

So, they will work by following all the codes and regulations, saving you from penalties. 

While hiring an electrician, try to provide as much information as possible. 

It will help him find out the right issue and solve it properly. 

It may cost a few dollars if you call an electrician. But you can save money in the long run and avoid expensive damages. 

If this is your first time attempting electrical work, hire a licensed electrician. 

Final thoughts

Making a switched outlet hot is simple if you follow the right process. You only need to perform a few wire connections. The half slot of the switched outlet will always remain hot while the other half is controlled with a switch. You can turn off the entire outlet with a switch. 

Turning a switched outlet hot allows you to use appliances that must be run constantly, such as refrigerators and sump pumps. That is why people prefer turning the switched outlet to hot. 

However, there are some issues to consider. A switched outlet increases the risk of electrocution, always remains energized and overloaded, and consumes more energy. Before you make such a setting, check with the local codes for permission. Since outlets are complicated, hiring an electrician is better than doing it alone. 

How can I bypass the outlet light switch?

Remove the switch and unscrew the switch. Connect the black wire from the outlet with the switch’s black wire and screw the switch back into the electrical box and replace the plate.

Can I break a tab on a switched outlet?

Turn the power off and remove the screws holding the switch plate. Once you see the tabs holding the switch in place, use needle-nose pliers to break the tab gently.

Reference: Electrical Outlets Wikipedia