No, I’m not talking about the breakfast cereal with the cute cartoon characters in funny hats!

April marks the dubious beginning of the season of violent thunderstorms that that runs throughout hot summer and ends in September. These six months that are most often associated with outdoor activities and family fun is also the time when the most severe damage occurs from lightening related incidents.

Over a 35-year period the National Oceanic and Atmospheric Administration (NOAA) has documented that 92% of severe lightning damage occurs, so this would be a good time to evaluate your current exposure to both personal and business property, sensitive electronics and susceptible equipment.

Businesses with the highest level of exposure include utilities, telecommunications companies, cable TV and satellite vendors and other industries that rely on remotely located equipment. Although the amount of financial exposure in less, individuals with home theater systems, computer and home appliances need to be equally vigilant when guarding their assets against potentially devastating direct hits as well as equally damaging electrical surges that travel through the system.

The frequency and severity of thunderstorms during this period creates a constant threat from lightning. Before you or your property becomes part of the NOAA statistics, evaluate your grounding system and surge protection.

According to national insurance data, lightning causes more than $5 billion in damage each year in the US alone.

Surge protection is designed to protect equipment from lightning-induced fluctuations on telephone and power transmission lines. Surge protection is very affordable and available at most big-box stores. Electronics such as computers whose hard drives which are highly susceptible to power fluctuations that occur daily even when no storm is present should have a good surge protection device year round.

When lightning strikes the ground nearby the electrical charge can radiates through the earth’s surface and travels following the path of least resistance. This high-frequency energy can quickly force fault current onto the bonded power circuits leading to exposed electronics.

Eliminating this fault path through the electronics, by temporarily isolating the equipment from the power connection, protects the equipment for the duration of the lightning threat. A properly installed grounding system is designed to quickly dissipate low frequency energy through grounding wires and into the earth.

While the peninsula of Florida has the unfortunate distinction of being the most often location for lightning strikes, the area of high exposure spans the entire Southeast and stretches all the way to the western states of Colorado and Wyoming on the Central Plains. The majority of this vast area will experience at least 50 days of exposure to severe thunderstorms in an average year, while the numbers in the Deep South range from 60 to 90 days of high exposure annually.

Before the air outside is filled with the smell of burning ozone, and the odor of burnt circuit boards fill your home, take a few minutes to evaluate your exposure and your plan of protection. Prevention is always more affordable and less frustrating than dealing with the aftermath of procrastination!

Protecting your property with an Intersystem Bonding Termination is easy and very affordable, as you’ll read in this article posted recently. Protect Valuable Electronics by Bonding all Electrical Systems

Click this link for a complete selection of lightning protection components, or call one of the knowledgeable customer service staff at Stormcopper.com. It’s a free call: 1-888-334-2177.

According to national insurance data, lightning causes more than $5 billion in damage each year in the US alone. When a lightning strike is experienced in a home or office building, transferred voltage potentials can develop between multiple ground references that are not intentionally or effectively bonded together.

Most often it is the electronics within a home, such as personal computers, Internet modems, stereo or home theater systems and televisions that are most susceptible to damage when systems are not interconnected. The lack of a proper bonded connection between systems such as electrical and telephone wiring have caused or contributed to appliance and equipment damage, ignited fires and caused personal injury.

Proper bonding between connections and electric power systems will minimize the voltage differences and reduce the potential for damage caused by transients. A home that is properly bonded has an increased level of safety for people inside during a lightning storm. Intersystem bonding provides a low-impedance connection for grounding separate systems and creating an equipotential plane.

For more than 15 years the National Electrical Code (NEC) has specified that ground conductors from various systems be bonded together, but they failed to specify exactly how that was to be done. Then, in 2008 the telecommunications industry submitted and won approval for the intersystem bonding termination requirement. Their intent was to create a dedicated location for terminating grounding conductors from communications circuits and other systems. In Article 250.94 three acceptable methods for bonding systems in a building are identified. The first option is a set of terminals mounted and electrically connected to the meter enclosure. The second alternative is a bonding or grounding busbar near the service enclosure, meter enclosure or raceway for service conductors. And the third alternative is a bonding bar near the electrode conductor.

Since this change was announced, many states have recognized the advantages of Article 250.94 and adopted them into local codes, but have not been proactive in updating existing homes or businesses. A simple solution is available; the Intersystem Bonding Termination (IBTB). This device is an easily installed method for meeting this effective code and all mounting hardware and anchors are included.

The IBTB is designed to meet the requirements of the 2008 NEC® Article 250.94 section titled “Bonding for Other Systems.” The IBTB is mounted adjacent to the meter base or service entrance equipment and is a convenient way to interconnect and terminate grounding conductors from telephone, CATV or radio and television antennas.
The IBTB includes corrosion-resistant, stainless steel mounting hardware and is easily accessible for connection and inspection. The lay-in connection clamp (#6 – #2 AWG, or 16 – 35 mm2) allows easy installation of the grounding electrode conductor in one continuous length, where possible. The polymeric base and housing is impact-resistant, UV-stabilized and meets UL® requirements for weatherability performance. Accommodates (5) 14-4 AWG (1.5 – 25 mm2 bonding conductors and (1) 6 – 2 AWG (16 – 35 mm2) grounding electrode conductor.

When mounted near the meter base or service entrance equipment it is easily accessed for initial connections and subsequent inspection. It is ideal for protecting cable TV, telephone, satellite systems, security systems, sprinkler system controls, pet fencing, landscape lighting, structural lightning protection and more.

For installation, when the grounding electrode connector is accessible, the integral lay-in connection clamp permits the direct connection of the grounding electrode conductor to the Intersystem Bonding Termination. If this is not possible, a #6 AWG conductor can be used to connect the IBTB to the grounding electrode using a listed grounding connector. When the grounding electrode is not accessible, a minimum #6 AWG conductor can be used to bond to the meter enclosure or metallic raceway with a listed device.

The entire installation process shouldn’t take more than a half hour to an hour at the most, and once completed you’ll feel much more comfortable when lightning and thunder roll through your neighborhood again.

For all your grounding and electrical component needs, contact the knowledgeable and helpful customer service team at Storm Copper. Call toll free: 1-800-394-4804 or log onto http://www.stormcopper.com/ to peruse products or place an order.

Lightning Protection Booklet offered for $12.99 at www.stormgrounding.com

Lightning Protection Booklet offered for $12.99 at www.stormgrounding.com.

Storm Copper, parent company to the electrical grounding online store, StormGrounding.com is always searching for ways to extend the benefits of lightning protection to its customers. So when a unique lightning protection booklet came to the attention of co-owner, Bob Granger, he decided the content needed to be available to all Storm customers at cost.

The booklet, The Standards of Practice for the Design, Installation and Inspection of Lightning Protection Systems was painstakingly compiled by the Lightning Protection Institute, a non-profit organization steeped in professional training and quality assurance. “The book contains information that can help people in understanding the value of lightning protection products and proper installation, so we want to get it into as many hands as possible,” Granger said.

The book’s research was conducted by the Lightning Protection Institute (LPI), with findings that indicate how well-designed and professionally installed electrical grounding systems can shield buildings, trees, electronic equipment, and then reduce personal injury from lightning. The information in this booklet also reflects an appreciation of lightning protection products, installation, and use derived from consultation with manufacturers, users, inspection authorities, and others having specialized experience.

Published by the LPI, the booklet had been available online for as high as $49.00, Storm now offers the book for $12.99. Copies are available at Storm’s online electrical grounding store.

Much of the book’s content has multiple uses for homeowners involved in household lightning protection, not only as a do-it-yourself guide but as a planner that could lead to creating a more effective electrical grounding design. The booklet would also help a homeowner in hiring a certified installer or electrical contractor.

LPI adopted the latest National Fire Protection Association (NFPA) codes in the booklet, including the NFPA 780 Standards, content of considerable value to lightning protection installers, electrical journeymen and contractors. Contents include System Certification, Inspection and Maintenance, Main and Down-lead Conductors, Electrical Grounding, Interconnection (Bonding), and contents go on to cover specific types of installations.

Storm Grounding is a division of Storm Copper Components, Co., which specializes in the manufacture of custom electronic components for the wireless, telecommunications, power and alternative energy markets, serving OEM’s, electrical contractors and system installers for almost 20 years.

For more information, or to schedule an interview with Bob Granger, please call Dave Krikorian at 423-506-4178 or email dkrikorian@stormcopper.com.

By Frank Ross

As creatures bound to the earth, we are typically more concerned about what comes from the bottom of violent storm clouds and protecting ourselves, our loved ones and our property from those threats. Being focused on the business end of a storm, most people have given little thought to what might be happening above the top of these towering dispensers of rain, lightning, tornadoes and hail. We spend the moments before a storm hits, running for shelter and hoping it is not us that gets lit up by the next blinding bolt, and not our property that gets wiped out by the electrical surge crackling through our electronics.

Although lightning puts on a dazzling display, lashing out from the bottoms of clouds to objects below, sometimes the most impressive show is taking place out of the tops of the thunderheads. And, in these rare cases, the most interesting aspect of this lofty lighting display is the presence of sprites, elves and blue jets.

This image gives a graphic illustration to three extremely illusive electrical events.

This image gives a graphic illustration to three extremely illusive electrical events.

Although mankind may have been aware of this atmospheric curiosity for many years or even thousands of years, scientists began their attempt to study, evaluate and document “reported” sightings back in the late 1800s. The earliest known entries in scientific journals date back to 1886, when notations were made of unexplained observations above thunderstorms. A little over 100 years later, on July 6, 1989 the “official discovery” was made by a University of Minnesota Physics Professor, John R. Winckler. Winckler was testing a low-light video camera for a pending rocket flight to conduct research. While playing back the tape, he and his graduate students, Robert Franz and Robert Nemzek, were amazed when they observed giant columns of light towering high above the distant thunderstorms they had taped in northern Minnesota. Immediately they realized their tape had captured evidence of unexplained visual reports of strange lights above thunderstorms dating back over a century.

Once documented, these several electrical events needed names, and numerous options sprang up from the scientific community. However, the one that stuck was sprite. In mythology and Shakespearean plays, “sprites” are mythical, fleeting, and playful creatures, and the observable experience of this particular event fits the name well. As new transient luminous events (TLEs) above thunderstorms were discovered, they were given names in much the same manner. For example, blue jets just named themselves because they looked just like… well, blue jets.

Shortly after Professor Winckler’s discovery, NASA officials realized that they had been using similar low-light cameras on the Space Shuttle. When they conducted a review of the payload bay video cameras used in missions from 1989 to 1991, they discovered at least 18 examples of what appear to be sprites. Then in 2003, Ilan Ramon, the first Israeli astronaut, flew on the STS-107 mission with optical equipment designed to make detailed, calibrated images of sprites. Within several days of launch, successful images of sprites and elves were sent back to earth for further analysis.

Sprites are very brief and difficult to see. The portion of the event that is visible to the naked eye typically lasts less than one hundredth of a second. They’re primarily red in color, although they may have a bluish tinge in the downward extending tendrils. When using a night vision camera, they are visible for longer periods of time, but even with this ultra sensitive technology, they are rarely visible more than one tenth of a second. To complicate the task of documenting and studying sprites even more, sprites often start at altitudes of 45 miles, or in the middle atmosphere. Sprites can appear as low as 15 to 20 miles up, but they tend to extend upwards to the edge of the ionosphere, which is around 55 to 60 miles above the surface of earth.

The limiting factors are color and height, but the upside is size. Sprites are huge, stretching upward for as much as 45 miles with a width that can extend up to 10 miles. Often sprite events can involve a series of individual sprites that occur in clusters which stretch 50 miles or more across the sky. In terms of volume, the amount of atmosphere involved can cover thousands of cubic miles.

Beyond the fact that this atmospheric phenomenon occurs in the lofty confines of our upper atmosphere, it is also fairly rare, produced by a small percentage of less than 10% of cloud-to-ground lightning, and even then only in certain storms. Sprites are composed of many networks of thin channels of electrical streamers, created by the discharge of extremely powerful lightning, sometimes occurring within thunderstorms. Most often they are triggered by a powerful positive cloud-to-ground flash which lowers massive amounts of electric discharge to the earth. This momentarily increases the electric field in the middle atmosphere, which is beyond the point of dielectric breakdown. In plain English, a giant spark starts around 45 miles above the earth, followed by electrical streamers that race both downwards and upwards from the point of origination.

A critical detail to note is that sprites do NOT shoot up from the cloud. They actually start many miles above the storm which creates them, extending both upwards and downwards.

As far as personal observation, the majority of sprites are probably just a bit too dim and too fast to be seen easily by the naked eye. But given the right conditions, one can visually observe sprites on the brighter end of their scale. To date, sprites have been observed over the majority of the world’s surface, with the exception of the Arctic and Antarctic regions where thunderstorms are almost non-existent. The High Plains of the United States is one of the most prolific regions in the U.S. These high rates of occurrence are due to frequent and large nocturnal thunderstorms during spring and summer. Although this region of the U.S. is particularly productive, sprites are likely to be common above storms in northwestern Mexico, Argentina and southern Brazil as well as central Africa. In addition to these regions, sprites have been photographed over Europe, Japan, Peru, China and Australia, just to name a few.

Elves

The elve is another high altitude electrical phenomena, first theoretically predicted by Stanford University scientists back in the early 1990s. Following their prediction, elves were later confirmed by actual observations and photographed from the Space Shuttle and the ground (by Tohoku University scientists) several years thereafter.
Elves are created by an especially powerful electromagnetic radiation pulse (EMP) emanating from certain lightning discharges. Energy passing upwards through the base of the ionosphere causes gases to blow briefly. Although elves are as bright as sprites, elves are far more brief and difficult to document. Typically, elves only last less than a thousandth of a second making them virtually impossible to see with the naked eye. They tend toward the red end of the spectrum, and when seen, look like giant expanding doughnuts. They occur at a height of around 60-65 miles, expanding outward to several hundred miles in diameter.

Blue Jets
Blue jets are similar in origin, but distinctly different. Like the illusive sprite, the first blue jet was “captured,” quite by accident. The University of Alaska-Fairbanks were using low-light cameras onboard a NASA research jet in 1994, which provided the first taped evidence of jets that appear to spurt upwards from cloud tops at speeds of 50-100 miles per second. Jets can reach heights of up to 25 miles before fading from sight. Jets last generally less than a quarter of a second, but it is possible to perceive their upward motion with the naked eye. Typically jets are generated by storms with high lightning rates, but unlike red sprites, blue jets do not appear to be related to specific cloud-to-ground lightning discharges. It also appears that Blue jets are more likely to occur near the highest portion of intense thunderstorm cells, such as those which produce tornadoes and extremely severe weather.

To view any of these three electrical events, it is best to be within 100 or so miles of an active storm. Your best opportunity would be on a moonless night in a rural area away from city lights. Under these conditions the eye adapts quickly to the dark, which helps in spotting these quick, elusive light shows.
If you’re going to try and spot one of these remarkable lightning-related events, just remember that you’re still subject to the effects of lightning coming from the lower region of these storms, so don’t let them get too close before you seek shelter; and hopefully you’ll be seeking that shelter in a home or business with a good lightning protection system installed.

If not, log on to stormgrounding.com for information on the latest in high-quality copper components used in lightning protection systems. The elves, sprites and blue jets will take care of themselves!

lightning_wide

This timed exposure of multiple lightning strikes probing for unprotected electronics illustrates the very real threat to humans and their homes. The many lights beneath this storm is Norman, Oklahoma. Photo courtesy of the National Severe Storms Laboratory (NSSL).

Protecting your valuable electronics from electrical surges and lightning strikes begins with the understanding that your remotely operated components are never really “off”, even when you think you turned them “off”.

By Frank Ross

I was at my desk, writing a new blog post yesterday, when a thunderstorm blew in off the Gulf of Mexico, bringing an unusually strong storm for this late in November. It was quite a storm, what the locals call a real frog strangler. The rain began falling softly at first then the skies opened up and lightning was cracking all around our central Florida home.

At the first rumble of thunder I started shutting down everything electronic, and went through our home pulling plugs to sensitive electronics. One of the most susceptible avenues of destruction is through the telephone lines, through your modem and ultimately your computer. The surge protection system I use has a plug for protecting the phone line, and they guarantee their unit will protect my computer . . . up to $1,000 in damage. Unfortunately, it will not cover the aggravation and lost time, not to mention the thousands of images I have stored on three drives. I have a backup, and you can call me a chicken, but I would rather be safe than sorry when it comes to my computer.

circuit_boards

This circuit board shows the damage that can happen when lightning comes calling. Photo courtesy of the Copper Development Association Inc.

A very important thing to remember about lightning inside your home is that without a lightning protection system and a very good ground, nothing is safe as long as it is plugged in. Just turning your electronics off does not protect them from a lightning generated surge. And if your expensive electronics items are plugged in when you experience a direct hit, you can start making a shopping list because what you owned will be toast.

The danger is created by the design of our electronic conveniences, which are tailored to our desire to stay in one spot and use remote controls to turn entertainment components on and off.

Because of the way remote controls work, home electronics are really never “off”. All of our modern televisions, home theater systems, CD and DVD players that are remote controlled, are always on, even when we think of them as being turned off.

When you turn off the TV or DVD with the remote, the device actually goes into standby, not fully off. A small detector circuit in the device is always on, waiting for a signal from the remote to go to full power in its operational mode. When you couple this standby nature with a poor ground, it gives a lightning surge a great path to ground and the microsecond that the surge passes through your electronics on its way to ground is all it takes to fry a circuit board, chips, and power transformers.

The only way to make sure a remote controlled device is off is to unplug it. Also, keep in mind that lightning doesn’t have to be very close for you to get zapped. When lightning strikes a power pole or substation, the resulting surge of electricity can travel a long way, very fast. A good rule of thumb is when you hear thunder; it’s time to pull the plug. And in the summer, when you typically get a severe thunderstorm several days a week, it’s a good idea to unplug your electronics if you’re going to be away from home. It just makes for a more pleasant trip when you have the peace of mind that you won’t find a pile of melted metal that was once a TV, or computer hard drive on your return.

Of course, there is an easier solution; have a good lightning protection system installed and ground all of your electronics properly. That will also reduce the wear and tear on your wall outlets!

For information on all lightning protection options, call Storm Copper’s friendly customer service staff, or hook up to a live chat session on StormGrounding.com.

Storm Copper is always searching for ways to extend the benefits of lightning protection to its customers. So when a unique lightning protection booklet came to the attention of co-owner, Bob Granger, he decided the content needed to be available to all Storm customers at cost.
Storm_Copper LPI
The booklet, The Standards of Practice for the Design, Installation and Inspection of Lightning Protection Systems was painstakingly compiled by the Lightning Protection Institute, a non-profit organization steeped in professional training and quality assurance. “The book contains information that can help people in understanding the value of lightning protection products and proper installation, so we want to get it into as many hands as possible,” Granger said.

The book’s research was conducted by the Lightning Protection Institute (LPI), with findings that indicate how well-designed and professionally installed electrical grounding systems can shield buildings, trees, electronic equipment, and then reduce personal injury from lightning. The information in this booklet also reflects an appreciation of lightning protection products, installation, and use derived from consultation with manufacturers, users, inspection authorities, and others having specialized experience.

Published by the LPI, the booklet had been available online for as high as $49.00, Storm now offers the book for $12.99. Copies are available at Storm’s online electrical grounding store.

Much of the book’s content has multiple uses for homeowners involved in household lightning protection, not only as a do-it-yourself guide but as a planner that could lead to creating a more effective electrical grounding design. The booklet would also help a homeowner in hiring a certified installer or electrical contractor.

LPI adopted the latest National Fire Protection Association (NFPA) codes in the booklet, including the NFPA 780 Standards, content of considerable value to lightning protection installers, electrical journeymen and contractors. Contents include System Certification, Inspection and Maintenance, Main and Down-lead Conductors, Electrical Grounding, Interconnection (Bonding), and contents go on to cover specific types of installations.

To get a copy of this information-packed book, go to StormGrounding.com

By Frank Ross

To understand how to protect your home and family from the dangers of lightning, you first need to understand a bit about how lightning forms, what creates this powerful display, and what causes it to “strike.” Just this week a friend asked, “Just how does lightning pick a target?”

ac_damage

Photo by Dr. Ray Franco, PhD., PE.

After a direct hit to a business or home, sometimes people feel that lightning singled them out as a target. While a guilty conscience may cause one to feel like they were perhaps deserving a lightning bolt, a bolt of lightning is an impersonal force. Although somewhat subject to the whims of chance, physical characteristics of your home and the terrain it is positioned on, as well as surrounding trees, the type of soil, power lines, etc. have more of an impact on the location of a strike. Another thing to keep in mind; the old adage which states “lightning never strikes in the same place twice” is a myth. Many towers and tall buildings are struck repeatedly by lightning, so don’t think that because you had a recent direct hit that you’ve experience a once in a lifetime shot. It could happen again tomorrow. In the long run, a proactive approach is the best insurance.

ac_damage2

Lightning damage is visible on this AC compressor, photographed by Dr. Ray Franco, PhD., PE.

Lightning is a massive flow of electrical current that occurs between storm clouds and objects on the earth. This flow of current occurs when positive charges on the earth and negative forces in the clouds build up until the potential is great enough to jump between the distances which separate the various tall objects arrayed along the surface of these two opposing charges. When the buildup of the downward force in the clouds is sufficient and the two opposites come ever closer toward each other, the difference in both charges intensifies until a stepped leader thrusts downward toward an object on the ground with the highest potential force.

The path of the stepped leader is erratic, and very fast. Positive charges are attracted by this probing leader and reach up from roof tops, tall chimneys, antennas, electrical equipment on roofs or power poles. When the leader connects to the opposite charge, it creates a closed circuit and the massive build up of electricity is bled off in a blinding flash of white-hot light.

For a homeowner a direct hit can wipe out all types of electronic devices, not to mention the potential for a serious fire, roof and other structural damage. If a good insurance policy with a low deductible is in place, it’s only a minor inconvenience to make a few phone calls and schedule the repairs. Sometimes it may take a few days, but the worst thing you have to do is talk on your cell phone while the home phone is out, and watch the game next door while you raid their refrigerator at halftime. On the other side of the coin, if you have an expensive large-screen television, an expensive surround sound system, several home computers, a security system, electronic garage doors, an air conditioner and any of the many kitchen appliances damaged, you should take a serious look at protection that goes beyond running around jerking plugs out of outlets.

When a business takes a major hit, it can mean a serious loss of income from irate customers that can’t get a timely response while phones are knocked out and sales or customer records can’t be accessed on the company’s fried computers. Companies with production facilities can experience excessive down time in automated production lines, causing missed delivery and canceled contracts. Property damage can run into serious money, draining or diverting capital from other pressing projects, not to mention the jeopardy of repeated insurance claims can have on renewal.

Some people have to take a direct hit and feel the pain of a major financial loss before they invest in a lightning protection system, while others are more proactive and seldom flinch when a strike hits nearby.

Want to be proactive? Read on.

By Frank Ross

rods

The classic Franklin point design, and the more blunted version of modern lightning rods.

In any lightning protection system, the soldier manning the front line is the air terminal. This simple component is engineered to intercept the downward-moving stepped leader by launching an upward-reaching attachment spark that will serve to close the circuit and direct the flow of current to a solid grounding device, away from a structure and expensive electronics.

Even if you’ve never seen an air terminal in person, more than likely you’ve seen pictures of them on tall buildings, barns, and homes. Most likely the end of the air terminal you’ve seen was very sharply pointed. The theory behind the sharp point design is that it causes the largest electric field and hence is more likely to launch the attachment spark. Sharp pointed air terminals, originally designed by Ben Franklin are a time-honored concept; however, recent research has revealed that blunt rods are slightly more effective in accomplishing this job.

Since Franklin’s initial invention in 1749, there has been controversy between American supporters of Franklin’s design and British scientists that insist the rod should have a round ball on the end. In recent years there has been a great deal of research with far more sophisticated monitoring and measuring equipment which actually proves neither was correct.

Perhaps it was the politically charged atmosphere between the British and the Americans during the early days of this country’s development that caused Franklin and other American supporters to stand doggedly behind his pointed design, but more than likely it was the limited tools at his disposal for accurately analyzing the effectiveness of either. Remember the kite and key experiment? That came about because of repeated delays in the construction of a church steeple that was to utilize one of his lightning rods. Regardless of the choice, neither kite nor distant observations of a church steeple would have provided much more than anecdotal evidence.

Many modern physicists have shown that, under strong electric fields, the air around sharp rods becomes ionized. This ionized air creates space charges that act to weaken the fields of electricity building up and flowing from ground to components atop roofs, towers and similarly susceptible structures. In both laboratory and field experiments scientists have established that critical field strengths for lightning interception develop more quickly around moderately blunt or blunt lightning rods that those with sharp points.

The most effective air terminal is one with a radius of curvature between 3/16 and 1/2 inch. This is not to say that pointed terminals should be avoided or replaced. They are effective, but moderately blunt or blunt terminals are just more effective.

I’ll get more into components and other aspects of a lightning protection system, to give you a general understanding of how these components make up a protection system and how that system works; however, you should always seek the advice of an engineering specialist with specific knowledge of lightning protection.

In the meantime, Storm Grounding has a complete line of top quality rods, mounting brackets, grounding cables and grounding rods viewable at Stormgrounding.com.

Other links of importance:
United Laboratories Installation Guidelines

Residential Lightning Protection and Grounding

Arborist (Tree-Top) Lightning Protection and Grounding

Barn and Outdoor Structure Lightning Protection and Grounding

uwec.edu_opn

Multiple lightning strikes are captured in this time-lapse photograph. Credit UWEC

By Frank Ross

Everyone who has studied this nation’s founding fathers is familiar with the veracity of George Washington and the primitive, if not foolhardy scientific curiosity of Ben Franklin who tied his fabled key to a kite and experienced the static, if not ecstatic encounter with a bolt of lightning. While we are all familiar with Ben’s escapades, most are not aware that his adventure was the second such event, predated by Thomas-François Dalibard and De Lors who conducted their experiment at Marly-la-Ville in France, several weeks before Franklin’s experiment. As news of these two events spread and stirred the minds of adventurous with a scientific bent, others attempted to replicate this feat. Unfortunately, for George Richmann of Saint Petersburg, Russia, the effort was his last. He rushed home, just ahead of an oncoming storm, set up his experiment and a strike of ball lightning ended his foray into the world of electrical experimentation.

As these pages unfold, I will provide information about lightning and introduce you to the danger of its inherent nature without the necessity of foolhardy escapades. In addition to this general information about the nature and characteristics of lightning, I will introduce you to ways to protect your home, your business and the lives of you and your family.

You may be thinking, what’s the big deal about lightning? Summer thunderstorms pass through our lives sometimes daily, or even multiple times a day without affecting anyone we know. While we may read about someone being struck by lightning, or see a story on TV news broadcasts, for our own life experience it is not a real concern because it has never impacted our personal space.

I say personal space, because lightning is invasive by nature. You don’t have to be struck directly to feel the impact of this illusive killer. Like a thief in the night, it comes in without knocking or warning. You go out for the afternoon and return home to an odor that strikes you as soon as you open the door. Your telephone, computer, stereo, television, refrigerator, air conditioner are all toasted by a surge of electricity that turns wiring to copper residue surrounded by burnt insulation.

Can you avoid this unfortunate experience and keep your personal possessions safe?

The answer would be yes, but first you need to understand what type of thief you’re dealing with.

The more you know about lightning, the safer you and your things will be, so let’s jump right in!

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