I still remember the night it happened, clear as day. I was buried deep in a new gaming session, headphones on, completely oblivious to anything beyond the digital world, when a sudden, acrid smell pierced through the virtual battlefield. It was a sharp, chemical odor, unmistakably like burning plastic. I ripped off my headphones, my heart already hammering against my ribs, and that’s when I saw it: a thin wisp of smoke curling up from behind my desk, specifically from the power strip where my PC, monitors, and various peripherals were plugged in. Before I could even fully register the dread, a small, orange flame flickered to life, dancing ominously from the surge protector itself. Panic set in. In that terrifying moment, the question wasn’t just “What’s happening?” but a desperate “Why did my surge protector catch fire?” and “What do I do now?”
Your surge protector likely caught fire due to a combination of factors, including consistent overloading beyond its capacity, a failure of its internal surge protection components (MOVs) after repeated surges, manufacturing defects, or physical damage that compromised its wiring. These issues can cause internal components to overheat, melt, ignite, and potentially spread fire.
That night, I instinctively pulled the main power plug from the wall, a move that, thankfully, immediately cut the power to the smoldering device and extinguished the flame. But the experience left an indelible mark and a deep understanding of just how critical it is to understand these everyday safety devices. A surge protector isn’t just a convenient way to get more outlets; it’s a vital piece of equipment designed to safeguard your electronics from electrical spikes. When it fails, especially in such a dramatic fashion, it’s a serious wake-up call. Let’s dive deep into the often-overlooked dangers of surge protector failure, explore the detailed reasons why they might ignite, and, most importantly, arm you with the knowledge to prevent such a frightening scenario in your own home.
The Essential Role of a Surge Protector: More Than Just Extra Outlets
Before we dissect the fiery failures, let’s briefly understand what a surge protector is supposed to do. At its core, a surge protector is designed to divert excess electrical voltage away from your sensitive electronics. When there’s a power surge—a sudden, unexpected spike in voltage that can occur from lightning strikes, power grid fluctuations, or even the cycling of large appliances in your home—the surge protector acts as a sacrificial lamb. It uses components called Metal Oxide Varistors (MOVs) to absorb this excess voltage, preventing it from reaching your valuable gadgets like computers, TVs, and gaming consoles. Think of it like a pressure relief valve for your electrical system. However, like any safety device, it has its limits and can degrade over time, sometimes with dangerous consequences.
Understanding the Lifeline: How MOVs Work and Why They Fail
The magic within most surge protectors lies in their Metal Oxide Varistors (MOVs). These small, ceramic-like components are connected between the hot, neutral, and ground wires. Under normal operating voltage, MOVs act like open circuits, letting electricity flow unimpeded. But when a voltage spike occurs, exceeding a certain threshold, the MOV’s electrical resistance drastically drops, effectively becoming a short circuit for a fraction of a second. This diverts the excess current away from your electronics and safely to the ground wire, clamping the voltage down to a safe level. Once the surge passes, the MOV’s resistance returns to normal. It’s a clever, fast-acting defense mechanism.
The catch? Each time an MOV sacrifices itself to protect your devices, it experiences a little wear and tear. Imagine bending a paperclip back and forth; eventually, it breaks. Similarly, MOVs degrade with each surge they absorb. They might not fail immediately, but their capacity to absorb future surges diminishes. Repeated small surges can slowly cook an MOV, causing it to overheat and eventually fail. A single, massive surge can instantly fry it, sometimes leading to a catastrophic failure that involves smoke, fire, or even a small explosion. This degradation is a silent killer, as you rarely know exactly how many surges your unit has protected against until it’s too late.
The Alarming Truth: Primary Reasons Your Surge Protector Catches Fire
When a surge protector goes up in smoke, it’s not usually a random event. There are several well-understood, often preventable, reasons why these seemingly innocuous devices can become fire hazards. Let’s break down the most common culprits:
1. Overloading: The Silent Killer of Electrical Safety
This is arguably the most common reason for surge protector fires, and it’s a danger many folks unknowingly invite into their homes. Every surge protector, just like any electrical outlet or circuit in your house, has a maximum current rating, usually expressed in amps or watts. For most standard surge protectors, this is typically 15 amps, which translates to about 1800 watts at 120 volts. When you plug in too many devices, or devices that collectively draw more power than the surge protector is designed to handle, you’re essentially forcing too much electricity through wires and components that aren’t built for it.
Think of it like trying to force too much water through a narrow hose. The pressure builds, and eventually, something gives. In an electrical context, excessive current causes resistance, which generates heat. This heat can be intense enough to melt the plastic casing, insulation around the wires, and internal components like the MOVs. Once the plastic insulation melts, exposed wires can touch, creating a short circuit, which rapidly generates more heat, sparks, and ultimately, fire. This is particularly dangerous because the overload might not happen instantly; it can be a slow build-up of heat over hours or even days, until a critical temperature is reached. Appliances with heating elements (like space heaters, toasters, coffee makers, hair dryers) or powerful motors (like vacuum cleaners) are notorious for drawing a lot of power and should generally be plugged directly into wall outlets, never into a surge protector or extension cord.
2. Degradation or Failure of MOVs: The Wear and Tear Factor
As discussed, MOVs are the unsung heroes of surge protection, but they have a finite lifespan. Each time they activate to shunt a surge, they take a small hit. Over time, or after a particularly powerful surge, an MOV can become damaged or degraded. When an MOV degrades, its ability to handle future surges is compromised. It might start to conduct a small amount of current even under normal operating conditions, leading to continuous heating. This constant, low-level heating can cause the MOV to slowly cook itself, eventually reaching a critical temperature where it short circuits internally, potentially igniting the surrounding plastic and wire insulation. In extreme cases, a large surge can cause an MOV to fail explosively, producing sparks, smoke, and flames immediately.
Many modern surge protectors include an indicator light to show if the surge protection is still active. If this light goes out, it’s a clear signal that the MOVs are no longer functioning, and the unit should be replaced. However, even if the light is on, it doesn’t always guarantee that the MOVs are still at peak performance; it only confirms they’re not completely dead.
3. Poor Quality or Defective Manufacturing: The Hidden Hazard
Not all surge protectors are created equal. The market is flooded with inexpensive options, and unfortunately, “cheap” often translates to “dangerous” in the world of electrical safety. Poorly manufactured surge protectors might use substandard components, thin-gauge wiring that can’t handle the advertised current, or plastic casings that aren’t flame-retardant. Internal connections might be shoddy, leading to loose contacts that arc and generate heat. My personal rule of thumb: if it seems too good to be true for the price, especially for something that stands between your expensive electronics and a potential house fire, it probably is.
A tell-tale sign of a quality product is certification by a reputable testing laboratory, such as Underwriters Laboratories (UL) in the United States. A UL listing (often visible as a small “UL” logo) means that representative samples of the product have been tested and found to meet recognized safety standards. While even UL-listed products can fail, the chances of manufacturing defects leading to catastrophic failure are significantly reduced with certified products.
4. Physical Damage: The Obvious, Yet Overlooked Threat
It sounds basic, but physical damage to a surge protector or its cord can compromise its integrity and lead to a fire. This includes:
- Pinched or Frayed Cords: If the power cord is repeatedly bent, pinched under furniture, or stepped on, the insulation can wear away, exposing the internal wires. This can lead to a short circuit, arcing, and fire.
- Cracked Casing: A drop or impact can crack the plastic casing, exposing internal components to dust, moisture, or accidental contact, potentially leading to a short.
- Damaged Outlets: Worn-out or bent prongs in the outlets can lead to poor connections, causing resistance and localized heating.
- Water or Moisture Exposure: Electricity and water are a dangerous combination. Even a small amount of moisture can create a conductive path, leading to a short circuit and rapid heating.
Always inspect your surge protectors regularly for any signs of wear and tear. If you spot damage, replace the unit immediately.
5. “Daisy-Chaining”: A Recipe for Disaster
This is a particularly dangerous practice that many people engage in without realizing the severe risks. Daisy-chaining refers to plugging one surge protector or extension cord into another. While it might seem like a clever way to expand your available outlets, it’s a catastrophic fire hazard. Each device added to the chain further extends the load on the initial outlet and the entire wiring path. The primary surge protector is already rated for a certain current. By daisy-chaining, you significantly increase the potential load on the first unit and the wall outlet it’s plugged into, almost guaranteeing an overload situation.
Imagine this: your wall outlet and its associated circuit breaker are designed to handle, say, 15 amps. You plug in a surge protector, which also has a 15-amp limit. Now, you plug another surge protector into that one, and then perhaps an extension cord into the second surge protector. With each step, you’re not increasing the available current from the wall; you’re just adding more points of failure and increasing the current draw from the original source. This can quickly exceed the safe operating limits of any of the connected devices or even the household wiring, leading to extreme overheating, melting, arcing, and fire. Fire marshals consistently list daisy-chaining as a leading cause of electrical fires in homes and offices. Just don’t do it, folks.
6. Environmental Factors: Dust and Debris
Dust, lint, and other debris can accumulate inside the outlets of a surge protector, especially if it’s placed on the floor or in a dusty environment. This accumulation can act as an insulator, trapping heat, or, worse, become a conductive path between the live and neutral contacts, potentially causing a short circuit. Some dust particles can even be somewhat conductive, especially if there’s any moisture in the air. Over time, a thick layer of dust can also reduce the efficiency of heat dissipation from the internal components, contributing to overheating. Regular cleaning and strategic placement can mitigate this risk.
7. Incompatible Devices: Not Everything Belongs
As touched upon earlier, certain appliances are simply not designed to be plugged into surge protectors or even standard power strips. These include:
- High-Wattage Appliances: Space heaters, toasters, coffee makers, microwave ovens, refrigerators, freezers, and air conditioners draw a significant amount of current. They are designed to be plugged directly into dedicated wall outlets. Connecting them to a surge protector almost guarantees an overload.
- Appliances with Motors: Devices like vacuum cleaners, blenders, and washing machines have motors that draw high current, especially during startup. These surges, though brief, can stress MOVs and contribute to early degradation or outright failure.
Always check the wattage or amperage of the devices you intend to plug in and compare it to the surge protector’s rating. When in doubt, plug high-draw appliances directly into a wall outlet.
8. Internal Short Circuits: The Hidden Flaw
Sometimes, a fire can occur due to an internal short circuit that isn’t immediately obvious. This could be due to a manufacturing defect, where wires are not properly insulated or secured within the casing, and over time, vibration or heat causes them to touch. It could also happen if an internal component, like a capacitor or resistor, fails catastrophically, creating a direct path for excessive current. These types of failures are harder to predict but highlight the importance of purchasing UL-listed products that have undergone rigorous safety testing.
Early Warning Signs: Is Your Surge Protector About to Fail?
Thankfully, your surge protector often gives you clues before it decides to go full inferno. Paying attention to these signs can literally save your home and belongings from disaster:
Checklist for a Failing Surge Protector:
- The Protection Indicator Light is Off: Most surge protectors have a small light (often green) that indicates the surge protection components (MOVs) are active. If this light is off, it means the MOVs have likely worn out and the unit is no longer providing surge protection. While it might still function as a power strip, it’s no longer safe to rely on for protection, and its internal components might be compromised.
- Visible Damage: Inspect the cord for fraying, cuts, or melted spots. Check the casing for cracks, scorch marks, or deformation. Any sign of physical damage means the unit is compromised and needs immediate replacement.
- Heat: If the surge protector feels unusually warm or hot to the touch, especially when under a normal load, it’s a red flag. Excessive heat indicates internal resistance and potential overloading or component failure.
- Strange Noises or Smells: Buzzing, crackling, or popping sounds coming from the unit are serious warning signs of arcing or component failure. A burning plastic smell (like the one I experienced), acrid smoke, or any other unusual odor is an immediate cause for concern.
- Tripped Breakers or Blown Fuses: If the circuit breaker for the outlet the surge protector is plugged into frequently trips, or if the surge protector itself has a reset button that constantly needs pressing, it might be due to an overloaded surge protector or an internal fault.
- Age: Surge protectors don’t last forever. Their MOVs degrade over time, even from small, imperceptible surges. A general rule of thumb is to replace them every 3-5 years, or sooner if you live in an area prone to frequent power fluctuations or lightning.
If you notice any of these signs, unplug the surge protector immediately and replace it. Don’t take chances with electrical safety.
When Disaster Strikes: What to Do If Your Surge Protector Catches Fire
My own experience taught me the importance of quick, decisive action. If you ever find yourself facing a surge protector fire, here’s what you need to do, in order of priority:
- STAY CALM: Panic is your worst enemy. A small fire can quickly escalate, but a calm mind can react effectively.
- Disconnect Power (IF SAFE): If you can safely reach the wall outlet without exposing yourself to flames, smoke, or electrical shock, pull the plug from the wall. This will cut off the power supply to the burning unit, often extinguishing the fire immediately. DO NOT touch the burning surge protector itself or its cord if it’s actively flaming or arcing.
- Evacuate the Area: If you cannot safely disconnect the power, or if the fire is growing rapidly, get yourself and anyone else out of the room and out of the house immediately. Close the door behind you to help contain the fire and smoke.
- Call 911 (or your local emergency number): Even if you think you’ve put out the fire, call the fire department. They can ensure there are no smoldering embers within walls or hidden electrical damage that could reignite.
- Use a Fire Extinguisher (IF SAFE and Trained): Only if the fire is small, you have a Class C (electrical) fire extinguisher (or an ABC multi-purpose one), and you know how to use it, attempt to extinguish the fire from a safe distance. Never use water on an electrical fire, as it can cause electrocution and spread the fire.
- Ensure Ventilation: After the fire is out and the area is safe, open windows to ventilate the space and clear out any smoke. Smoke residue can be harmful and corrosive.
The key here is self-preservation. Your life and the lives of those in your home are far more valuable than any electronics or property. Don’t take unnecessary risks.
Preventing the Blaze: Steps to Safeguard Your Home
The good news is that most surge protector fires are preventable. By understanding the risks and taking proactive measures, you can significantly reduce the chances of ever experiencing such a frightening event.
Choosing the Right Surge Protector: Quality Over Cost
This is where prevention truly begins. Don’t skimp on a device designed to protect your valuable electronics and, more importantly, your home from fire.
- UL Listed: Always, always, always look for the Underwriters Laboratories (UL) mark. This indicates the product has met rigorous safety standards. It’s the baseline for trust.
- Joule Rating: This number tells you how much energy the surge protector can absorb before it fails. Higher joule ratings mean better protection and a longer lifespan. Aim for at least 1000 joules for basic electronics, and 2000+ joules for critical or expensive equipment like computers and home theater systems.
- Clamping Voltage: This is the voltage level at which the surge protector activates and diverts excess power. Lower clamping voltages (e.g., 330V or 400V) mean faster, more effective protection.
- Indicator Lights: Ensure it has a “Protection Active” or “Ground OK” light. This is your visual cue that the unit is still doing its job.
- Automatic Shutoff: Some higher-end surge protectors will automatically cut power to the outlets if their internal protection components fail, preventing them from acting as just an overloaded power strip.
- Appropriate Amperage: Most standard surge protectors are rated for 15 amps. Ensure the total current draw of all plugged-in devices does not exceed this rating. If you need more capacity, you might need a dedicated circuit or a specialized industrial-grade unit (which isn’t typically for home use).
Proper Usage and Placement: Common Sense is Key
Even the best surge protector can become a hazard if not used correctly.
- Avoid Overloading: Be mindful of the total wattage of devices you plug in. If you’re using high-draw appliances, plug them directly into wall outlets. Look for the wattage rating on your appliances, or calculate it (Volts x Amps = Watts).
- No Daisy-Chaining: Never plug one surge protector into another, or into an extension cord. This is a fire waiting to happen. If you need more outlets, install more wall outlets or use a single, high-quality surge protector with enough outlets for your needs.
- Ventilation: Place surge protectors in open, well-ventilated areas. Avoid covering them with rugs, furniture, or placing them in enclosed spaces where heat can build up.
- Keep Away from Flammables: Don’t place surge protectors near curtains, paper, or other easily flammable materials.
- Dry Environment: Keep surge protectors away from sources of water or excessive moisture.
- Secure Placement: Ensure the surge protector isn’t being tripped over or subjected to physical stress that could damage the cord or casing.
Regular Inspection and Replacement: Your Ongoing Vigilance
Surge protectors aren’t “set it and forget it” devices. They require periodic checks.
- Monthly Visual Check: Quickly scan for signs of damage, fraying, discoloration, or heat.
- Check Indicator Lights: Make sure the “Protection Active” light is still on.
- Routine Replacement: Even without visible damage or indicator light failure, surge protectors lose effectiveness over time. Experts generally recommend replacing them every 3 to 5 years. If you live in an area with frequent thunderstorms or power fluctuations, consider replacing them more often.
Consider Whole-Home Surge Protection: A Comprehensive Approach
For ultimate protection, consider investing in a whole-home surge protector. These devices are installed at your electrical service panel (your breaker box) and protect all circuits and appliances in your entire home from external surges, like lightning strikes. While individual point-of-use surge protectors are still recommended for sensitive electronics, a whole-home unit provides a robust first line of defense, significantly extending the life and effectiveness of your individual units. This is a job for a licensed electrician, not a DIY project.
Myths vs. Facts: Clearing Up Surge Protector Misconceptions
There are many common misunderstandings about surge protectors that can inadvertently lead to unsafe practices. Let’s dispel some of these myths.
Myth: All power strips are surge protectors.
Fact: Absolutely not. A power strip simply provides more outlets, distributing the power from a single wall outlet. It offers no protection against voltage spikes. Surge protectors, on the other hand, incorporate the MOVs discussed earlier to divert excess voltage. Always look for “surge protector” specifically, along with a joule rating and UL listing.
Myth: A surge protector lasts forever, or until it physically breaks.
Fact: As we’ve covered, surge protectors have a finite lifespan. Their internal MOVs degrade with each surge, even minor ones. Over time, they become less effective or stop working altogether, even if the “protection active” light is still on or if the unit appears physically intact. Regular replacement (every 3-5 years) is crucial.
Myth: Plugging in fewer devices saves the surge protector.
Fact: While overloading is a major risk, simply plugging in fewer devices doesn’t make the MOVs last longer if the devices you do plug in are high-wattage or if the unit is subjected to frequent surges. It’s about the total current drawn and the number/intensity of electrical surges it has to absorb.
Myth: Expensive surge protectors are just a scam; a cheap one does the same job.
Fact: This couldn’t be further from the truth. The price often reflects the quality of components, the joule rating, clamping voltage, number of MOVs, and additional features (like EMI/RFI noise filtration). A higher-quality, more expensive unit typically offers superior protection and a longer, safer service life. A cheap, un-certified unit might offer minimal protection or even pose a fire hazard itself.
Myth: Surge protectors protect against lightning strikes directly hitting your home.
Fact: This is a common and dangerous misconception. While a surge protector can help mitigate the effects of an indirect lightning strike (e.g., a strike near your home that causes a surge in the power grid), no standard point-of-use surge protector can fully protect against a direct lightning strike to your house. The energy in a direct strike is astronomical and will likely overwhelm any residential surge protection, often causing significant damage regardless. The best protection against a direct lightning strike is to unplug sensitive electronics during a thunderstorm.
Frequently Asked Questions About Surge Protector Fires
Can I plug an extension cord into a surge protector?
No, absolutely not, and this is a critical safety warning. Plugging an extension cord into a surge protector, a practice known as “daisy-chaining,” is a significant fire hazard. Both extension cords and surge protectors are designed to be temporary power solutions and have their own current limits. When you connect them in series, you dramatically increase the risk of overloading the circuit, the surge protector, or the extension cord itself.
The danger stems from the fact that you’re creating multiple points of potential failure and drawing more power through components that aren’t rated for such a cumulative load. This can lead to excessive heat generation, melting of insulation, short circuits, and ultimately, fire. Electrical safety standards, fire departments, and manufacturers universally advise against daisy-chaining. If you need more outlets, consider installing additional wall receptacles or investing in a single, high-quality surge protector with a sufficient number of outlets to meet your needs, ensuring it’s plugged directly into a wall outlet.
How often should I replace my surge protector?
You should replace your surge protector regularly, even if it appears to be working. A good rule of thumb is to replace standard point-of-use surge protectors every three to five years. This recommendation stems from the fact that the internal components, primarily the Metal Oxide Varistors (MOVs), degrade over time with each surge they absorb. These surges, often imperceptible, slowly wear down the MOVs, reducing their capacity to protect against future voltage spikes. Eventually, the MOVs can fail entirely, leaving your devices unprotected, or worse, they can degrade in a way that causes them to overheat and become a fire hazard.
Additionally, if your surge protector has an indicator light that signifies its protection is active and that light goes out, it’s an immediate signal that the MOVs have failed, and the unit should be replaced without delay. Furthermore, if you live in an area prone to frequent power fluctuations or lightning storms, you might consider replacing your surge protectors even more frequently, perhaps every two to three years, due to the increased stress on their components.
Are all surge protectors the same?
No, absolutely not. This is a common misconception that can lead to inadequate protection and increased fire risk. Surge protectors vary significantly in quality, protection capabilities, and price. Key differences include their joule rating, clamping voltage, the number and quality of MOVs used, and the presence of safety certifications.
A higher joule rating indicates a greater capacity to absorb energy from surges, offering better protection and a longer lifespan. A lower clamping voltage means the protector activates more quickly to divert excess voltage. Cheaper surge protectors often have lower joule ratings, higher clamping voltages, and may use inferior components that degrade faster or even pose a fire risk due to poor manufacturing. Always look for a UL listing for safety assurance, and consider the joule rating as a primary indicator of its protective capacity. Don’t confuse a basic power strip (which only provides extra outlets) with a true surge protector (which actively protects against voltage spikes).
Can a power strip catch fire without a surge?
Yes, a power strip can absolutely catch fire even without an external power surge. The primary reason for a power strip fire, in the absence of a surge, is typically overloading. Power strips are essentially just multiple outlets connected to a single plug; they offer no surge protection and usually have a maximum current rating (often 15 amps or 1800 watts). If you plug in too many devices, or even just one high-wattage appliance (like a space heater, coffee maker, or hair dryer) into a power strip, it can draw more current than the strip’s wiring is designed to handle.
This excessive current generates heat, which can cause the internal wiring, the plastic casing, and the cord’s insulation to melt. Once the insulation melts, exposed wires can come into contact, leading to a short circuit, arcing, sparks, and ultimately, fire. Poor manufacturing quality, damaged cords, or internal defects can also contribute to a power strip catching fire without a surge. Always be mindful of the total wattage of devices plugged into any power strip or outlet.
What’s the difference between a power strip and a surge protector?
While often visually similar and sometimes confused, a power strip and a surge protector serve fundamentally different purposes, and understanding the distinction is crucial for electrical safety. A power strip is a simple device that provides multiple electrical outlets from a single wall receptacle. Its sole function is to expand the number of available outlets, allowing you to plug in more devices. It does not offer any protection against voltage spikes or surges; it merely distributes the power.
A surge protector, on the other hand, does everything a power strip does (provides multiple outlets) but adds a critical layer of defense against power surges. It contains internal components, most commonly Metal Oxide Varistors (MOVs), that are designed to detect and divert excess electrical voltage away from your connected devices. When a voltage spike occurs, the surge protector sacrifices itself by absorbing or shunting this excess energy to prevent it from reaching and damaging your sensitive electronics. This protective capability is usually indicated by a joule rating and a “Protection Active” light. In essence, all surge protectors are power strips, but not all power strips are surge protectors. For any valuable electronics, always opt for a dedicated surge protector, identifiable by its joule rating and safety certifications like UL listing.
Is it okay to plug a refrigerator into a surge protector?
Generally, it is not recommended to plug a refrigerator into a standard surge protector or power strip. Refrigerators, like other large appliances such as freezers, air conditioners, and washing machines, are considered “high-draw” appliances. This means they draw a significant amount of electrical current, especially during their startup cycle when the compressor kicks in. This high current draw can quickly overload a standard surge protector, which is typically rated for 15 amps or 1800 watts, leading to excessive heat generation, melting, and potential fire risk for the surge protector itself.
Moreover, while refrigerators can benefit from surge protection, a typical point-of-use surge protector might not be robust enough for the unique power demands of a compressor motor. If you are concerned about protecting your refrigerator from surges, a dedicated appliance surge protector designed specifically for high-current devices, or even better, a whole-home surge protector installed at your main electrical panel by a licensed electrician, would be more appropriate and safer. For most homes, a refrigerator should be plugged directly into a dedicated wall outlet to avoid overloading risks.
The experience of seeing my surge protector catch fire was a stark, unforgettable lesson in electrical safety. It transformed me from someone who viewed these devices as mere convenience into an advocate for understanding their critical function and inherent risks. Don’t wait for a similar scare to reevaluate the electrical safety in your home. By choosing quality, using devices correctly, and staying vigilant for warning signs, you can prevent a common household accessory from becoming a dangerous liability. Your peace of mind, and the safety of your home and family, are truly worth the extra effort.