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the way open* Atlanta GA 770 590-7880 Chicago IL 847 989-0211 Clearwater
Tampa Orlando Florida 1-800-665-3522
Do not hire a stucco repair company to do a stucco inspection!
BIG CONFLICT OF INTEREST
We are an independant third party we work for you doing
Certified Stucco & EIFS Inspections Stucco Warranty - Stucco Bond - Stucco Certificate Dryvit Acrocrete Finestone Parex Pre-Mix Marbletite Same
Day Service Available
Atlanta EIFS Inspections
Chicago Mold Inspection Florida Indoor Air Quality
Testing Elgin Synthetic Stucco Inspector Marietta
Methamphetamine Lab Assessments Radon Testing Alpharetta Asbestos
Testing Smyrna Phase 1 Enviromental Site Assessment
Georgia Florida
"I have inspected over 10,000 homes myself
with over 20 years experience."
Scott Zaeske Owner President
"I
inspect every home myself so you will not get someone unqualified to inspect your lifetime investment." "Many
regular home inspectors do not even have ladders to inspect the stucco system properly." "We also use
the newest state of the art equipment to do indoor air quality testing, mold inspections, radon testing, asbestos
testing, and methamphetamine testing of surfaces."
- Certified Stucco - EIFS - Dryvit Inspector
- Certified Mold - Indoor Air Quality Inspector
- Certified Radon Inspector
- Certified Asbestos Inspector
- Certified
Methamphetamine Inspector
Now Open in Orlando Winter Park Tampa St
Petersburg Florida with over 20 years expertise call 1-800-665-3522 Mold Inspections - Indoor Air Quality
Testing - Sick House Syndrome
Tampa St. Petersburg EIFS Inspection Orlando Clearwater Florida Synthetic Stucco 1-800-665-3522
1-800-MOLD-LAB Stucco Inspections & Mold Inspections Synthetic stucco eifs home inspector Pinellas
County FL Hillsborough County FL Elgin Illinois indoor air quality 847
989-0211 Marietta GA synthetic stucco 770 590-7880 Hard coat stucco inspection Chicago Rockford IL black toxic mold inspector Acworth
Georgia stachybotrys inspection Crystal Methamphetamine Lab Seizure Assessment Service Asbestos Testing St. Charles Radon Testing Cook County EIFS Kane
County Dryvit Inspection 847 989-0211 and 770 590-7880 1-800-665-3522 Synthetic stucco Drivit EIFS Dryvit
Acrocrete we are your residence expert on stucco Cobb County Fulton County Cherokee County
We accept cash, check, Visa - Master Card
- American Express - Discover "We inspect every home as though it was our own..."
A+ Member of the Better Business
Bureau
Welcome, My name is Scott Zaeske President of All Stucco and Mold
Inspections Inc. of Atlanta Georgia, Chicago Illinois and Florida with over 20 years experience in synthetic stucco,
EIFS, mold inspections, radon testing, asbestos testing, and methamphetamine seizure inspections. 847 989-0211 Chicago, 1-800-665-3522
Florida, and 770 590-7880 Atlanta.
Stucco Inspections
Please note if you are not available to be at the
home during the inspection that is alright as we do the stucco inspection from the outside and do not need to get in
the home. At All Stucco and Mold Inspections Inc. our name preceeds
us in quality, honest, timely, and courteous service as we are dedicated to you our customer. Our mission at All Stucco Inspections Inc. is working for you as a independent third party
stucco or EIFS home inspection company. We have no vested
interest in repairs but we can give you a list of contractors if needed and we will protect you from companies doing stucco
inspections and repairs. If you do not hire us be sure you hire a company like us as an independent thrd party we will save
you money.
Do not
hire a stucco repair company to do your stucco inspection !!!
We can save you money and answer
your questions about stucco, eifs, synthetic stucco,hardcoat, water damage, termite infestation, elastomeric coatings, Dow
Corning caulking, moisture free warranty, and stucco bond. Many
home inspection companies are new to stucco or eifs which could hurt in the sale of a home or cost homeowners a lot of money
in repair costs. We have inspected over 10,000 stucco homes in the city of Atlanta and Chicago. Our experience in eifs and stucco home inspections, chemistry, litigation, manufacturing, technical
specifications, research, and development in this industry is unsurpassed. Stucco homeowners or buyers rest assured that if these products are installed and maintained properly they will last
as long if not longer than brick, wood, vinyl, or any siding system. All
Stucco Inspections Inc. does the following: *Full moisture testing
and inspection. *Photographs of any needed upgrades. *Written report documenting observations. *Stucco report
is ready the very same day as inspection. *List of independant certified contractors. *Stucco certificate and warranty. Compare our services to any other stucco inspection company in Atlanta or Chicago or Florida and find out that All Stucco
Inspections does the most for your dollar and no other company has as much experience as we do.
We also inspect commercial buildings including shopping centers, malls, hotels, motels, hospitals,
industrial buildings, and high rises. We bring peace of
mind to our clients in offering services no other Atlanta, Chicago, or Florida stucco home inspection company can offer.
Synthetic
Stucco www.allstucco.com The History
of Synthetic Stucco Synthetic Stucco,
also known as EIFS (Exterior Insulated Finish System), was first used in Europe after the end of World War II. The product
was first installed on commercial buildings in Germany. Synthetic
stucco eventually made its way over to the United States. As in Europe, the early installations were on commercial properties.
In the 1980’s, architects and builders began experimenting with the idea of using synthetic stucco on residential homes. What is Synthetic Stucco? Synthetic stucco installation begins with attaching 2’ X
4’ EPS foam panels to the plywood sheathing of the structure. A fiberglass mesh is attached to the foam. The stucco,
which is an acrylic, rubber based product, is applied in one or two coats, and the final product is typically 1/16th to 1/8th
inch thick. In comparison, hardcoat stucco installed over wood strips, known as lath, or over metal lath, does not have the
foam underlayment, and is usually 3/4" to 1 inch thick. Why Was Synthetic Stucco Used? The product was touted as the "Exterior Cladding of the Future". Benefits included the ease
and low cost to install. The EPS foam installed behind the stucco provided additional insulation benefits. The finish color
is consistent throughout the stucco, making it, in theory, low maintenance. Architects favored the product because you could
create interesting design features and details, adding to the curb appeal of homes with synthetic stucco cladding. What are the problems with EIFS? Synthetic stucco was meant to be a barrier system, meaning it
was not intended for water to get behind the stucco. Once water got behind the stucco, the water was trapped, causing wood
rot to the wood framing and sheathing of the home, as well as mold and mildew. In the early 1990’s, problems were discovered on homes with EIFS located in Wilmington, North Carolina.
Removal of the stucco revealed extensive structural damage to the homes as a result of moisture intrusion behind the stucco.
Local building officials called in the builders, architects, and stucco manufacturers to evaluate the problem. The examination of the home revealed moisture was intruding behind
the stucco cladding, as a result of poor design and installation. Installation defects include failure to install proper window,
door, and kick-out flashings, and leaking windows. In addition to the moisture related problems, it was discovered that the
foam behind the stucco, when installed at or below grade, was conductive to termite and fire ant infestation. As a result of problems discovered with synthetic stucco clad
homes, inspection and testing protocols were created. The Synthetic Stucco Inspection A moisture intrusion inspection on a home with synthetic stucco is a combination of a visual inspection,
and moisture detection using moisture meters designed specifically for this purpose. The visual inspection accesses the installation of the stucco. The inspector verifies whether
flashings are properly installed. The stucco is checked for any signs of damage, cracking, and delaminating. The inspector
will determine if the stucco system terminates above or below grade. The windows and doors, porches and decks, and utility
penetrations are carefully examined. The home is
then scanned for moisture using a non-invasive meter, typically a Tramex Wet Wall Scanner. This type of meter will scan up
to 3 inches behind the stucco for any signs of moisture. The drawback to this type of meter is that false positives may occur
as a result of metal installed behind the stucco, such as metal studs, electrical wiring, and plumbing piping. Inspection
protocols require that specific areas be tested using a probe meter. With permission from the homeowner, two holes are drilled
in each probe location. The probe meter will provide readings of the actual moisture content of the sheathing behind the stucco.
Moisture readings below 14% are considered low, between 14 and 18% medium, and readings above 18% high. Moisture levels above
25% for an extended period are conducive to rot to the wood framing and sheathing, as well as mold and mildew. All readings are recorded, and digital color photos are taken
to document the condition of the system, including components installed correctly and incorrectly. A computer report is compiled
from this data. Why
is it important that my stucco inspector not do any repair work?
- If your inspector offers to make any repairs
on his findings how can you be sure the findings are honest?
- If you hire the inspector to perform the repair work, who can you hire to review the
repair work and make sure that everything was repaired and repaired properly?
- The American Society of Home Inspectors-the nations largest, oldest,
and most respected Society of Home Inspectors requires that all members do not perform repairs on homes they inspect.
This is because it is a conflict of interest and there is the potential for the client or
home buyer to get taken advantage of if the inspector / repair contractor is unethical.
If you interested in obtaining a Stucco Warranty, All Stucco and Mold Inspections follows
the inspection protocol of the nation’s largest stucco insurer and our reports are accepted for review and possible
warranty coverage. With this solution you can feel safe that your warranty company will not disappear,
you can feel secure that your interim and post repair inspections will be through and honest. Warranties
are written by Moisture Warranty Corporation.

EIFS means Exterior Insulation and Finish Systems you will
see EFIS, EEFS, IFIS, or FEIS.
Hardcoat stucco means
cement, lime, and sand you will see stuco, stuko, stucko, or stucc-o.
Please note:Testing equipment is 50% of the stucco inspection the other 50% is our experience.
Can you trust your lifetime investment with novice home inspectors or repair
companies?
Chicago residents dial 847 989-0211
We
have inspected all stucco and eifs products:
Dryvit Drivit Thorowall Finestone Sto Stow Stowe Senergy Acrocrete Premix Marbletite Parex Shield Industries Shields SIR Stucco Bonsal Fuller Eurocoat Best Colormatch Color Guard Masterwall SIR Stucco Moisture Free Warranty Servox R Wall USG Celotex Quick
R Stucco Sir Densglass Gold Durock Drivet Pro Stucco Drivett Drivette Dryvet Dryvette Termite Inspectors Termite Bond Termite cutting of stucco and many more...
Orlando Tampa Clearwater
Florida residents dial 1-800-665-3522
"We know stucco..." We are also certified to do mold inspections of black mold, stachybotrys mold, and toxic mold along with indoor
air quality and sick house syndrome testing. www.1800moldlab.com We also are certified radon, asbestos, and methamphetamine lab inspectors please
read all below.
Atlanta residents dial 770 590-7880
Synthetic Stucco Specification click here
EIFS Dryvit Synthetic Stucco Inspections
Hard Coat European Cement Based Stucco Inspections
Barrier System EIFS Dryvit Synthetic Stucco
Drainable EIFS System Dryvit Synthetic
Stucco System
Hard Coat Cement Stucco System Pre-Mix Marbletite
"With over 10,000 stucco inspections completed."
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| Be sure you call us first 770 590-7880 |
All Residential and Commercial Stucco Inspections call : All
Stucco Inspections Inc. Atlanta 770 590-7880 Chicago 847 989-0211 and Florida 1-800-665-3522 www.allstucco.com
FAQ about EIFS Inspections & Hard Coat Inspection
Mold Inspections and Indoor Air Quality 1-800-MOLD-LAB
Andrea's Mold Story
(Please read it all.) In May of 2000 our family of 10 moved from a small house
in suburban Chicago to a 3 year-old 5500 square foot home in Monument Colorado. We chose Colorado for its beauty and proximity
to my husband’s writing colleagues. A year later our 9th child was born. During the course of that first year I noticed
a small brown spot on our eldest daughter’s carpet. At the time I thought nothing of it. Today I know it was our first
indicator that toxic mold was present in our home. As the years progressed we saw numerous medical issues arise. Our
oldest daughter developed a severe allergy to nuts, another daughter was diagnosed with a seizure disorder, and a son developed
a mild hearing loss. Other medical issues among the children included swollen adenoids, numerous skin rashes, excessive menstrual
bleeding, and chronic strep throat. Our dog was diagnosed with type 1 diabetes and 2 birds died. In May of 2007
I pulled up the carpet where the brown spot had become quite large. We discovered black mold and immediately with the help
of a friend tried to find the root of it by cutting into the drywall. We found extensive black mold surrounding the shower
of the adjacent bathroom. Knowing nothing about black mold we called a remediation company. They did not ventilate the
air, wore no masks, and did not contain the affected rooms. They assured us there was no danger or risk to our family. We
believed them. The cause of the mold was builder negligence. He stapled the shower pan liner instead of gluing it and improperly
installed the shower drain. 7 weeks after this massive exposure our 7 year-old son was diagnosed with Type 1 juvenile
diabetes. *Remember our toll free number 1-800-MOLD-LAB Call Today* In September our 11 year-old son complained
of severe ringing in his ears. November 1st he was up all night with vomiting and severe vertigo. School became an impossibility
and in fact he never returned to 6th grade.After pursuing second and third opinions he was diagnosed with Meniere’s
Disease. Several surgeries were performed before Christmas including a shunt and 2 gentamiacin injections all with the hope
of eliminating the vertigo. For a solid month I carried him around the house because walking had become so difficult.
His walking improved with rehab and time but his chronic dizziness worsened. Our neurotologist became frustrated and told
me our son needed tough love. In February of 2008 my 10 year-old daughter was diagnosed with convergence insufficiency
and diplopia after complaining of frequent headaches, dizziness, and motion sickness. In March of 2008 the rashes my
6 year-old son had developed became extensive. He also was urinating frequently and was constipated. Our son with diabetes
developed numbness in his hand, vision disburbances, headaches and severe abdominal pain. Our older son’s acne increased
dramatically and he continued to struggle with chronic colds and sore throat.My husband’s right hand became numb. I
was sufferering from chronic fatigue. I called an environmental hygienist and asked if mold could cause mysterious illnesses
such as ours and he assured me that respiratory symptoms were the only manifestation of mold and advised us against air testing.
Three of the children were now out of school completely. In May of 2008 our 8 year-old noticed discoloration on the ceiling
of his bedroom. We discovered more mold. This now involved the master bedroom shower 3 floors above the previous mold.
We called our mold remediation company and they began work immediately. Again they did not ventilate the air nor did they
contain the affected rooms. We decided to have our air tested and on May 22nd learned that our spore counts for stachybotrys
were greater than 200,000 in 2 of our rooms and more than 60,000 for chaetomium . Having already asked the remediation
company to remove their equipment we hired a new company to perform an emergency remediation. They contained the rooms, wore
protective clothing and masks and ventilated the rooms properly. We disposed of all our bedding,linens, and clothing in the
master bedroom , disinfected our air ducts and had all carpets steam cleaned. In June of 2008 our spore count for black
toxic mold was zero. During the course of the summer we developed a major de-toxifying regimen. This included numerous
supplements and major dietary changes. We continued to see the benefit of chiropractic treatment by an orthospinologist ,
a specialty involving the atlas bone and its intersection with the spinal column. When there is misalignment the brain
is inhibited from sending its messages to the body. Neurological and immune system issues result. One of the primary causes
of misalignment is toxic exposure. Our children all started school August 14th. Some symptoms remain. But I can take
them to the park or swimming. They can play on sports teams and take dance lessons. The laughter and tears of everyday
life have returned to our home and for that I am grateful. As I look back I wonder why we didn’t see our illnesses
as more than coincidental. I wonder why no doctor or specialist looked at the whole picture of our family and asked what might
be going on in our home environment. I wonder why the truth about this devasting health hazard is virtually unknown. Call
us today : 1-800-MOLD-LAB or 847 989-0211 in Chicago or 770 590-7880 in Atlanta.
Below is a man with mold rash very
common symptom especially in children and adults with weakened amune systems and it only gets worse.
Call us today
at 1-800-MOLD-LAB we are here to help...
Burning eyes red and watery
Headaches and chronic sinus problems
Asthma, Chronic Bronchitis Lung & Breathing Problems from mold
Skin rashes open sores
Mold rash is very very common with mold present.
Indoor Air Quality and Mold Testing 1-800-MOLD-LAB
or 1-800-665-3522
Complete indoor
air quality with microbiology testing available checking for over twenty different forms of mold and allergens. Asbestos testing,
radon testing, and methamphetamine seizure inspections with full lab testing. If you do not hire our company be sure you hire a company like ours as we are an independant
third party inspection service. What this means
is you are not at the mercy of a company doing an inspection and then they have a huge repair bill. We have no vested interest in repairs or clean up but we will recommend companies
if needed to do any cleaning. Why is mold growing
in my home? Molds are part of the natural environment.
Outdoors, molds play a part in nature by breaking down dead organic matter such as fallen leaves and dead trees, but indoors,
mold growth should be avoided. Molds reproduce by means of tiny spores; the spores are invisible to the naked eye and float
through outdoor and indoor air. Mold may begin growing indoors when mold spores land on surfaces that are wet. There are many
types of mold, and none of them will grow without water or moisture. Can mold cause health problems? Molds
have the potential to cause health problems. Molds produce allergens (substances that can cause allergic reactions), irritants,
and in some cases, potentially toxic substances (mycotoxins). Inhaling or touching mold or mold spores may cause allergic
reactions in sensitive individuals. Allergic responses
include hay fever-type symptoms, such as sneezing, runny nose, red eyes, and skin rash (dermatitis). Allergic reactions to
mold are common. They can be immediate or delayed. Molds can also cause asthma attacks in people with asthma who are allergic
to mold. In addition, mold exposure can irritate the eyes, skin, nose, throat, and lungs of both mold-allergic and non-allergic
people. Symptoms other than the allergic and irritant
types are not commonly reported as a result of inhaling mold. Research on mold and health effects is ongoing. Inspecting,
assessing, and testing for mold is a must. How
do I get rid of mold? It is impossible to get
rid of all mold and mold spores indoors; some mold spores will be found floating through the air and in house dust. The mold
spores will not grow if moisture is not present. Indoor mold growth can and should be prevented or controlled by controlling
moisture indoors. If there is mold growth in your
home call a mold expert to inspect and test as soon as possible. If you clean up the mold, but don't fix the water problem,
then, most likely, the mold problem will come back. We
believe that our families health is the most important thing and we will bring our 20 years expertise to your home.
We handle all commercial building and residential home mold inspections,
toxic mold, and black mold sampling. Moisture detection, flood specialists, and termite detection analysis. IAQ indoor
air quality experts 1-800-MOLD-LAB or 1-800-665-3522 or 770 590-7880 Atlanta and 847 989-0211 Chicago.
Atlanta Methamphetamine Testing Chicago Meth Inspector Acworth
Industrial Hygienist Elgin Building Inspection Service Kennesaw Home Inspection Service Woodstock Mold and
Mildew Services and Atlanta Stucco Exterior Coating Inspections 770 590-7880 Chicago EIFS & Indoor Air Quality 847 989-0211 Florida Dryvit
Inspector 1-800-665-3522
Radon - Radon is a cancer-causing natural
radioactive gas that you can’t see, smell or taste. Its presence in your home can pose a danger to your family's
health. Radon is the leading cause of lung cancer among non-smokers. Radon is the second leading cause of lung
cancer in America and claims about 20,000 lives annually.

Radon Testing 1-800-665-3522 or in Atlanta 770
590-7880 and in Chicago 847 989-0211
Is Radon killing you? Liz
Hoffman Providing A Voice To Stop the Nation's 2nd Leading Cause of Lung Cancer One in five
people diagnosed with lung cancer have never smoked. Prevention for your family starts with a
simple test of your home. My name is Elizabeth Hoffmann and I’m a survivor of radon induced
lung cancer. Although, I have never smoked, my 15-year exposure to dangerous levels of radon in my home resulted in doctors
having to remove the cancerous lower lobe of my left lung prior to my 38th birthday. Lucky for
me, they caught my cancer early. The National Academy of Sciences (NAS) and EPA blame radon for the deaths of 21,000 Americans
every year. But, their deaths, like my cancer, could have been prevented. A simple radon test at the time we bought our home
in 1988 would have alerted me to fix our house before we moved in. If I’d only known... Since
few oncologists provide a potential explanation for the cause, most non-smokers diagnosed with lung cancer never make a connection
to radon exposure. I would remain clueless myself, if it hadn’t been for the determination of my family to find out
why. My cousin mentioned radon to my father, who tested my house upon my return from the hospital. The
purpose of this website is two-fold: First, to put a face on radon, empowering sufferers of an apparent radon-induced lung
cancer (and their families) with a voice. While it is obviously too late to prevent our cancer, our stories can convince others
to prevent deadly radon exposure by testing and fixing. We can also shape public policy by convincing lawmakers and government
agencies to treat the radon issue and lung cancer with the seriousness they deserve. Second,
to prevent LC victims from remaining clueless. If you or a family member has been recently diagnosed with lung cancer, it
is imperative that you test your home for radon. If you determine radon is the likely cause of
your lung cancer, we’ll simply invite you to come forward and share your story. Together, we can make a difference for
generations to come. Doctors Warn of the Need For Prevention People
come into my office and say Doc Price I just don’t understand it. How can this happen to me? I don’t smoke. Nobody
ever smokes around me. How can I have lung cancer? While it is true that most of my lung cancer
patients have had a lot of tobacco exposure, the ones that are especially sad are the people who have never smoked, have never
been around secondhand smoke, who have lived “good clean lives” and lo and behold, they have a cold or bronchitis,
and the chest x-ray and the cat scan show they have lung cancer. But, it is really hard to convince
the public that radon is a problem when the nation’s leading housing authority, HUD, refuses to take action to prevent
radon exposure. They require a termite letter to qualify for a mortgage, yet to my knowledge a termite never killed anybody.
Why are they not requiring a radon test? We know the direct association between radon and lung
cancer. But to the people at risk, it’s a totally unperceivable problem because you can’t feel it; you don’t
smell it and you don’t see it. Lung cancer kills more Americans each year (160,000) than
breast, prostate and colorectal cancers combined. The EPA estimates 21,000 of them are the result of radon-induced lung cancer.
That’s nearly 60 per day!” Never underestimate the importance of prevention in all
aspects of your life. If you’re a lung cancer victim aware of all the ways it is impacting you and your family –
you’d be kicking yourself if you knew something a simple as a radon detection device would have allowed you to prevent
this from occurring. Please contact us at All Stucco and Mold Inspections today 770 590-7880
and schedule a Radon test. Where Does Radon Come From? Radon is
a naturally occurring odorless, tasteless, colorless radioactive gas. It is produced by the natural breakdown of radium in
soil, rock and water. Many homes and other buildings, such as schools and offices have high levels of radon. Because it's
odorless and invisible and the lung cancer usually shows up over a long period of exposure, the danger of radon is often underestimated.
Because of the stack effect, radon can be drawn into the home from the soil below. Common entry
points are cracks in concrete floors, utility access points, spaces around floor drains, sump pits, construction joints and
tiny cracks in basement walls. The concentration will depend on the source strength and the rate of pressure driven entry.
How Does Radon Induce Lung Cancer? If inhaled, airborne radon decay
products become deeply lodged or trapped in the lungs, where the alphas radiate and penetrate the cells of the mucous membranes,
bronchi, and other pulmonary tissues. The ionizing radiation energy affecting the bronchial epithelial
cells is believed to initiate the process of the carcinogenesis. Although, radon-related lung cancers are mainly seen in the
upper airways, radon increases the incidence of all histological types of lung cancer, including small cell carcinoma, adenocarcinoma,
and squamous cell carcinoma. What is The Evidence? More is known
about the health risk of radon exposure than almost any other human carcinogen. In fact, the University of Iowa College of
Public Health recently compiled a bibliography of radon epidemiology research that took 192 pages just to list! These include extensive studies of thousands of underground miners, carried out over more than 50 years worldwide,
that have consistently shown an increase in lung cancer occurrence with exposure to radon progeny. Miner
studies have produced some interesting findings. For example, at equal cumulative exposures, low exposures in the range of
EPA’s 4 pCi/L Action Level over longer periods produced greater lung cancer risk that high exposures over short periods.
Non-smoking miners were observed to have a significant increased risk, even after controlling for, or in the absence of other
mine exposures such as asbestos, silica, diesel fumes, arsenic, chromium, nickel, and ore dust. An added synergic effect between
radon exposure and cigarette smoking was also found. The NAS has repeatedly concluded that it
is reasonable to extrapolate from the miner data to a residential situation and in doing so, consider that the effective doses
per unit of exposure for people in homes is approximately 30% less than for the miners. Residential
studies have yielded similar findings. The Iowa Residential Radon Study completed in May of 2000 determined that even at the
EPA Action Level of 4 pCi/L, an approximate 50 percent excess lung cancer risk was found among the women in the study after
correcting for the impact of smoking. A 2002 residential study conducted in northeast Spain yielded similar results. Even
at concentrations far below official guideline levels, the Spanish study found that radon might lead to a 2.5-fold rise in
the risk of lung cancer. Exposures of animals further confirm that radon and its progeny cause
lung cancer. Health effects observed in animals exposed to radon include lung carcinomas, pulmonary fibrosis, emphysema, and
a shortening of life span. The incidence of respiratory tract tumors increased with an increase in cumulative exposure. Exposure
to ore dust and diesel fumes simultaneously with radon did not increase the incidence of lung tumors above that produced by
radon progeny exposures alone. In a study of rats exposed to radon progeny, it was observed that the risk of lung cancer was
elevated at exposure levels similar to those found in homes. Can High Radon Levels Be Reduced?
A certified or licensed contractor can easily and affordably reduce elevated radon levels. Most
techniques prevent radon from entering your home by drawing the radon from below the house and venting it through a pipe to
the air above the house where it quickly dilutes. Mitigation can also decrease moisture and other
soil gases entering the home, reducing mold, mildew, methane, pesticide gases and other air quality problems. Facts About Lung Cancer Lung cancer is the leading cause of cancer deaths in the United
States. Lung cancer kills more Americans each year than breast, prostate and colorectal cancers
combined. Lung cancer kills more women each year than breast cancer. Lung
cancer kills 85% of newly diagnosed patients within five years. Approximately 50% of the people
diagnosed with lung cancer have never smoked or are former smokers. Lung cancer gets few of the
research dollars because of the perception it is self-inflicted by smoking. In 2003, approximately
$1,740 was spent on research per lung cancer death, compared with: $13,649 per breast cancer death, $10,560 per prostate cancer
death and $4,581 per colorectal cancer death.
Exposure to Radon Causes Lung Cancer In Non-smokers and Smokers Alike Lung cancer kills thousands of Americans every year. The untimely deaths of
Peter Jennings and Dana Reeve have raised public awareness about lung cancer, especially among people who have never smoked.
Smoking, radon, and secondhand smoke are the leading causes of lung cancer. Although lung cancer can be treated, the
survival rate is one of the lowest for those with cancer. From the time of diagnosis, between 11 and 15 percent of those
afflicted will live beyond five years, depending upon demographic factors. In many cases lung cancer can be prevented;
this is especially true for radon.
Meth Inspections : 1-800-665-3522 or 847 989-0211
in Chicago and 770 590-7880 in Atlanta
Methamphetamine Testing of homes and businesses before you buy them.
Is it worth it?
Some Meth manufacturers will create an elaborate set up that rivals a high
school science lab - but it is far more dangerous. Smyrna, GA meth inspection.
Sophisticated equipment
may be used to cook up Methamphetamine like this Woodstock, GA home.
A Meth cook used children's
glasses for processing his product.
Home Sweet Meth Lab:
A complete Meth production center - from cooking to preparing for distribution - set up in a childs bedroom in Alpharetta,
GA.
Meth cooks will stash their
ingredients anywhere, like this closet. Since the materials are legal, they blend in with household goods.
This collection of Meth lab
equipment seized in Cartersville, GA proves that Meth cooks will set up shop anywhere. In fact, the more rural, the
more they think they'll avoid detection.
Mobile Meth labs, like this
one in a car trunk, prove that a Methamphetamine cook just needs a bit of space and some time to manufacture a batch.
Many Meth manufacturers
will cook outdoors, thinking the strong chemical odors will not be as noticed such as this lab in Fayetteville, GA.
If you come across this type
of debris outdoors, you may have stumbled across a deserted Meth lab. Do not touch anything, mark the area and call
authorities.
The equipment and materials
for a quick cook can be packed inside most anything - including a cooler.
A Meth cook found dead in a Atlanta condominium, overcome by phosphrine
gas - created when red phosphorus is overheated.
The Meth manufacturer was
killed when this trailer blew up during a cook of Meth in Canton, GA
These guns were seized in
a Meth lab bust in Tampa FL. Weapons and booby traps are some of the dangers associated with Meth labs.
In addition to weapons,
booby traps, and the potential of explosions or fires, the chemicals involved in Meth production are so dangerous, HazMat
crews suit up to decontaminate labs.
One sign of a Meth lab may be a propane tank where the brass fittings have turned
blue - from being filled with anhydrous ammonia.
Is the house your buying a previous methamphetamine lab with meth still in the carpet and all surfaces?
Methamphetamine use today is becoming an epidemic with labs discovered in such structures as single
family dwellings, mobile homes, vehicles, hotels, open air structures; in both urban, suburban and rural areas. Clandestine labs have become prevalent across America. They are used for the illicit production of illegal drugs,
mostly methamphetamine, PCP, GHB, or MDA (Ecstasy). Some labs have even been found with the raw materials used to concoct
homemade bombs. Law enforcement departments have seen a significant rise in occurrences over the last ten years. The hazardous
materials found on these premises have to be properly inspected, tested, and cleaned up. In a three year span between 2000-2002
there were over 7500 removal jobs totally over 150,000 kg of hazardous materials. A thorough understanding of the many challenges
involved in working at these sites and properly abating the hazards is crucial. Types of hazards
associated with clandestine labs Individuals usually operate these makeshift labs with little to no training in chemistry.
They employ crude homemade equipment to accomplish complex and dangerous chemical reactions. Due to the nature of the chemicals
involved there is significant risk of explosion, fire and exposure. Clandestine lab operators have also been known to carry
firearms and use booby traps; due to the paranoid delusions associated with meth usage. The chemical
agents used in the production of illegal drugs can include common household products such as methanol, ether, benzene, methylene
chloride, trichloroethane, toluene, muriatic acid, sodium hydroxide, table salt, and ammonia. Some of the uncommon household
items used include anhydrous ammonia, red phosphorus, iodine, and reactive metals. The poor handling, disposal, and mixing
of incompatible chemicals leads to significant hazardous conditions. Once these chemicals are mixed and used in the making
or `cooking` process, the production of other potentially harmful chemicals ensue. Oftentimes,
abatement workers focus strictly on the chemical hazards. However, there may be drug addicts and other visitors coming to
the lab expecting it to still be operational. Wandering meth users tend to be dillusional, paranoid and desperate. Your personal
protection can be at stake. Health effects related to exposure Working
in clandestine drug labs poses significant dangers that one must be aware of or serious health effects could develop including
the most extreme case of death. Knowledge of basic toxicology is crucial. The effect of a chemical can differ significantly
depending on how it enters the body. Entry routes include inhalation, dermal absorption, and ingestion. Inhalation is the
most common route of entry since we are continuously breathing. Noxious chemicals that are breathed in can rapidly enter the
circulatory system (blood) and get transported throughout the body. Since we are performing manual labor during abatement
of the lab our respiratory rate is higher leading to greater exposure. Inhalation exposure also depends on the size of the
inhaled particles and the properties of the exposed chemical. Chemicals with higher solubilities tend to get absorbed into
the blood system faster. Toxins can also be absorbed through the skin. Although one may not feel pain or discomfort when the
chemical contacts the skin, once it is absorbed it can travel throughout the body in the blood. Ingestion is the least likely
exposure method but workers should be wary of eating and drinking within the confines of the lab. Solvents
such as acetone, ether, freon, hexane, methanol, and toluene target the eyes, skin, respiratory system, central nervous system,
liver, and kidneys causing such symptoms as irritation to skin, eyes, nose and throat; headache; dizziness; central nervous
system depressant/depression; nausea; vomiting; and visual disturbance. Corrosive chemicals such as anhydrous ammonia, hydrochloric
acid, sodium hydroxide (lye), sodium thiosulfate, sulfuric acid (drain cleaner) target the eyes, skin, and respiratory tract
causing symptoms such as irritation to upper respiratory tract; cough; eye and skin irritation, inflammation and burns; gastrointestinal
disturbances; thirst; chest tightness; dyspnea; muscle pain; syncope; and convulsions. Metals such as iodine, lithium metal,
red phosphorus, yellow phosphorus, sodium metal used in the process can target the eyes, skin, respiratory system, central
nervous system, liver, kidneys, blood, cardiovascular system causing irritation to eyes, skin, nose and respiratory tract;
lacrimation; headache; chest tightness; cutaneous hypersensitivity; abdominal pain; and jaundice. Sampling
and laboratory analysis (basic, short and sweet) Many States have specific guidelines for clearance
testing associated with clandestine laboratories. For clandestine methamphetamine operations, the clearance contractor is
usually required to wipe surfaces and send the samples to an accredited laboratory. NIOSH and OSHA have not published validated
methods for the analysis of methamphetamine in air. OSHA has published a CSI (Chemical Sampling Information) procedure that
utilizes gas chromatography with flame ionization detection (GC/FID). However, most states require gas chromatography with
mass spectrometry (GC/MS). Detection limit requirements are sub microgram methamphetamine per wipe. Samples
can be taken from kitchen areas of the home where cooking activities are intensified. The clearance contractor should take
samples from the refrigerator (inside and out), the stove/oven, and the gap between the counter and the stove where those
nasty little toast crumbs build up. Testing should also be performed where a wall or floor meets
a cold/warmer exterior. The meth will tend to crystallize out at these temperature transition interfaces. HVAC ductwork should
be inspected as well for settled residue. The vehicles used in transportation, if clearance is required, may need wipe testing.
Dashboards and seats can be wiped and submitted for testing. When searching for testing services,
it is important to make sure your laboratory is aware of the clearance testing requirements for your State´s program.
Also, make sure that the required instrumentation is available for use. Lastly, make sure the detection limits will meet your
clearance needs. Other types of laboratory testing may also be required that are related to the
chemicals used in the manufacture of the illegal drug. The alchemist cooker may have used a variety of solvents and reactive
metals to produce his/her illicit powders. Be sure to consult RCRA and State regulations regarding the testing and disposal
of drummed wastes, building materials, carpet, wallboard, ceiling tiles, furniture, and appliances. There may be toxic materials
buried or dumped in the surrounding grounds. A thorough investigation of the entire property is required. Abatement & Hazardous Materials Handling Guidelines Only trained personnel should
be handling any chemicals. These individuals must be able to recognize chemical names and understand the effect of chemical
combinations. Separating any incompatible chemicals can reduce the risk of explosion. Ventilate all confined spaces thereby
limiting the concentration of explosive fumes and turn off any heat sources. Make sure all the lab equipment is turned off
and no longer heating the chemicals. Household materials, including carpets, sheetrock, ceiling
tiles, upholstery, and draperies, may become contaminated with chemicals requiring abatement. During cleanup and removal of
contaminated materials, workers should have personal protection equipment. This includes eye, hand, and foot coverings. Disposable
gloves and a Tyvek jumpsuit are good precautions for direct contact exposure but if toxic fumes are suspected then a suitable
breathing apparatus is needed. More often then not, abatement includes removal of contaminated materials, and scrubbing and
painting solid surfaces. Depending on the site and extent of contamination, soil and groundwater may need extensive cleanup. Call us in Atlanta 770 590-7880 Chicago
847 989-0211 Florida 1-800-665-3522
Asbestos Testing & Inspection 1-800-665-3522 or 847 989-0211
Chicago 770 590-7880 Atlanta
Is there asbestos in your home or office or factory?

|
| Asbestos Inspection and Testing 1-800-665-3522 |

- What is asbestos?
Asbestos is the name given to a group of minerals that occur naturally in the environment as bundles
of fibers and can be separated into thin, durable threads. These fibers are resistant to heat, fire, and chemicals and do
not conduct electricity. For these reasons, asbestos has been widely used in many industries. There are two subgroups
of asbestos: chrysotile, which has curly fibers and is in the serpentine family of minerals; and amphibole asbestos, which
has straight, needle-like fibers and includes actinolite, tremolite, anthophyllite, crocidolite, and amosite asbestos. Chrysotile
asbestos is the form that has been used predominantly in commercial applications worldwide (1, 2). - How is asbestos used?
Asbestos was mined and used commercially in North America beginning in the late
1800s. Its use increased greatly during World War II (3, 4). Since then, asbestos has been used in many industries. For example, the building and construction industry has used it
for strengthening cement and plastics as well as for insulation, roofing, fireproofing, and sound absorption. The shipbuilding
industry has used asbestos to insulate boilers, steampipes, and hot water pipes. The automotive industry uses asbestos in
vehicle brakeshoes and clutch pads. Asbestos has also been used in ceiling and floor tile; paints, coatings, and adhesives;
and plastics. In addition, asbestos has been found in vermiculite-containing consumer garden products and some talc-containing
crayons. In the late 1970s, the U.S. Consumer Product Safety Commission (CPSC) banned the use of asbestos in wallboard
patching compounds and gas fireplaces because the asbestos fibers in these products could be released into the environment
during use. Additionally, in 1979, manufacturers of electric hairdryers voluntarily stopped using asbestos in their products.
In 1989, the U.S. Environmental Protection Agency (EPA) banned all new uses of asbestos; uses established prior to 1989 are
still allowed. The EPA also established regulations that require school systems to inspect for damaged asbestos and to eliminate
or reduce the exposure to occupants by removing the asbestos or encasing it (2). In June 2000, the CPSC concluded that the risk of children’s exposure to asbestos fibers in crayons was extremely
low (1). However, the U.S. manufacturers of these crayons agreed to eliminate talc from their products. In August 2000, the EPA
responded to reports it received about the adverse human health effects associated with exposure to asbestos-contaminated
vermiculite by conducting a series of tests to evaluate the extent of the risk. The EPA investigation concluded that the potential
exposure to asbestos from some vermiculite products poses only a minimal health risk to consumers. The EPA recommended that
consumers reduce the low risk associated with the occasional use of vermiculite during gardening activities by limiting the
amount of dust produced during use. Specifically, the EPA suggested that consumers use vermiculite outdoors or in a well-ventilated
area; keep vermiculite damp while using it; avoid bringing dust from vermiculite use into the home on clothing; and use premixed
potting soil, which is less likely to generate dust. The regulations described above and other actions, coupled with
widespread public concern about the health hazards of asbestos, have resulted in a significant annual decline in U.S. use
of asbestos. Domestic consumption of asbestos amounted to about 803,000 metric tons in 1973, but it had dropped to about 2,400
metric tons by 2005 (3, 5). - What are the health hazards of exposure to asbestos?
People may be exposed to asbestos in their workplace, their communities,
or their homes. If products containing asbestos are disturbed, tiny asbestos fibers are released into the air. When asbestos
fibers are breathed in, they may get trapped in the lungs and remain there for a long time. Over time, these fibers can accumulate
and cause scarring and inflammation, which can affect breathing and lead to serious health problems (6). Asbestos has been classified as a known human carcinogen (a substance that causes cancer) by the U.S. Department of Health and Human Services, the EPA, and the International Agency
for Research on Cancer (2, 3, 7, 8). Studies have shown that exposure to asbestos may increase the risk of lung cancer and mesothelioma (a relatively rare cancer
of the thin membranes that line the chest and abdomen). Although rare, mesothelioma is the most common form of cancer associated with asbestos exposure. In addition to lung cancer
and mesothelioma, some studies have suggested an association between asbestos exposure and gastrointestinal and colorectal cancers, as well as an elevated risk for cancers of the throat, kidney, esophagus, and gallbladder (3, 4). However, the evidence is inconclusive. Asbestos exposure may also increase the risk of asbestosis (a chronic lung disease that can cause shortness of breath, coughing, and permanent lung damage) and other nonmalignant lung and pleural
disorders, including pleural plaques (changes in the membrane surrounding the lung), pleural thickening, and pleural effusions (abnormal collections of fluid between the thin layers of tissue lining the lung and the wall of the chest cavity). Although pleural plaques are not precursors to lung cancer, evidence suggests
that people with pleural disease caused by asbestos exposure may be at increased risk for lung cancer (9). - Who is at risk for an asbestos-related disease?
Everyone is exposed to asbestos at some time during
their life. Low levels of asbestos are present in the air, water, and soil. However, most people do not become ill from their
exposure. People who become ill from asbestos are usually those who are exposed to it on a regular basis, most often in a
job where they work directly with the material or through substantial environmental contact. Since the early 1940s,
millions of American workers have been exposed to asbestos. Health hazards from asbestos fibers have been recognized in workers
exposed in shipbuilding trades, asbestos mining and milling, manufacturing of asbestos textiles and other asbestos products,
insulation work in the construction and building trades, and a variety of other trades. Demolition workers, drywall removers,
asbestos removal workers, firefighters, and automobile workers also may be exposed to asbestos fibers. However, recent studies
do not support an increased risk of lung cancer or mesothelioma among automobile mechanics exposed to asbestos through brake
repair (10). As a result of Government regulations and improved work practices, today’s workers (those without previous exposure)
are likely to face smaller risks than did those exposed in the past. Those involved in the rescue, recovery, and cleanup
at the site of the September 11, 2001, attacks on the World Trade Center (WTC) in New York City are another group at risk
of developing an asbestos-related disease. Because asbestos was used in the construction of the North Tower of the WTC, when
the building was attacked, hundreds of tons of asbestos were released into the atmosphere. Those at greatest risk include
firefighters, police officers, paramedics, construction workers, and volunteers who worked in the rubble at Ground Zero. Others
at risk include residents in close proximity to the WTC towers and those who attended schools nearby. These populations will
need to be followed to determine the long-term health consequences of their exposure (11). One study found that nearly 70 percent of WTC rescue and recovery workers suffered new or worsened respiratory symptoms
while performing work at the WTC site. The study describes the results of the WTC Worker and Volunteer Medical Screening Program,
which was established to identify and characterize possible WTC-related health effects in responders. The study found that
about 28 percent of those tested had abnormal lung function tests, and 61 percent of those without previous health problems
developed respiratory symptoms (12). However, it is important to note that these symptoms may be related to exposure to debris components other than asbestos.
Although it is clear that health risks from asbestos exposure increase with heavier exposure and longer exposure time,
investigators have found asbestos-related diseases in individuals with only brief exposures. Generally, those who develop
asbestos-related diseases show no signs of illness for a long time after their first exposure. It can take from 10 to 40 years
or more for symptoms of an asbestos-related condition to appear (2). There is some evidence that family members of workers heavily exposed to asbestos face an increased risk of developing
mesothelioma. This risk is thought to result from exposure to asbestos fibers brought into the home on the shoes, clothing,
skin, and hair of workers. To decrease these exposures, Federal law regulates work practices to limit the possibility of asbestos
being brought home in this way. Some employees may be required to shower and change their clothes before they leave work,
store their street clothes in a separate area of the workplace, or wash their work clothes at home separately from other clothes
(2). Cases of mesothelioma have also been seen in individuals without occupational exposure, but who live close to asbestos
mines or have been exposed to fibers carried home by family members working with asbestos (6).
Asbestos is the name given to a group
of minerals that occur naturally in the environment as bundles of fibers and can be separated into thin, durable threads.
These fibers are resistant to heat, fire, and chemicals and do not conduct electricity. For these reasons, asbestos has been
widely used in many industries. There are two subgroups of asbestos: chrysotile, which has curly fibers and is in the
serpentine family of minerals; and amphibole asbestos, which has straight, needle-like fibers and includes actinolite, tremolite,
anthophyllite, crocidolite, and amosite asbestos. Chrysotile asbestos is the form that has been used predominantly in commercial
applications worldwide (1, 2). - How is asbestos used?
Asbestos was mined and used commercially in North America beginning in the late
1800s. Its use increased greatly during World War II (3, 4). Since then, asbestos has been used in many industries. For example, the building and construction industry has used it
for strengthening cement and plastics as well as for insulation, roofing, fireproofing, and sound absorption. The shipbuilding
industry has used asbestos to insulate boilers, steampipes, and hot water pipes. The automotive industry uses asbestos in
vehicle brakeshoes and clutch pads. Asbestos has also been used in ceiling and floor tile; paints, coatings, and adhesives;
and plastics. In addition, asbestos has been found in vermiculite-containing consumer garden products and some talc-containing
crayons. In the late 1970s, the U.S. Consumer Product Safety Commission (CPSC) banned the use of asbestos in wallboard
patching compounds and gas fireplaces because the asbestos fibers in these products could be released into the environment
during use. Additionally, in 1979, manufacturers of electric hairdryers voluntarily stopped using asbestos in their products.
In 1989, the U.S. Environmental Protection Agency (EPA) banned all new uses of asbestos; uses established prior to 1989 are
still allowed. The EPA also established regulations that require school systems to inspect for damaged asbestos and to eliminate
or reduce the exposure to occupants by removing the asbestos or encasing it (2). In June 2000, the CPSC concluded that the risk of children’s exposure to asbestos fibers in crayons was extremely
low (1). However, the U.S. manufacturers of these crayons agreed to eliminate talc from their products. In August 2000, the EPA
responded to reports it received about the adverse human health effects associated with exposure to asbestos-contaminated
vermiculite by conducting a series of tests to evaluate the extent of the risk. The EPA investigation concluded that the potential
exposure to asbestos from some vermiculite products poses only a minimal health risk to consumers. The EPA recommended that
consumers reduce the low risk associated with the occasional use of vermiculite during gardening activities by limiting the
amount of dust produced during use. Specifically, the EPA suggested that consumers use vermiculite outdoors or in a well-ventilated
area; keep vermiculite damp while using it; avoid bringing dust from vermiculite use into the home on clothing; and use premixed
potting soil, which is less likely to generate dust. The regulations described above and other actions, coupled with
widespread public concern about the health hazards of asbestos, have resulted in a significant annual decline in U.S. use
of asbestos. Domestic consumption of asbestos amounted to about 803,000 metric tons in 1973, but it had dropped to about 2,400
metric tons by 2005 (3, 5). - What are the health hazards of exposure to asbestos?
People may be exposed to asbestos in their workplace, their communities,
or their homes. If products containing asbestos are disturbed, tiny asbestos fibers are released into the air. When asbestos
fibers are breathed in, they may get trapped in the lungs and remain there for a long time. Over time, these fibers can accumulate
and cause scarring and inflammation, which can affect breathing and lead to serious health problems (6). Asbestos has been classified as a known human carcinogen (a substance that causes cancer) by the U.S. Department of Health and Human Services, the EPA, and the International Agency
for Research on Cancer (2, 3, 7, 8). Studies have shown that exposure to asbestos may increase the risk of lung cancer and mesothelioma (a relatively rare cancer
of the thin membranes that line the chest and abdomen). Although rare, mesothelioma is the most common form of cancer associated with asbestos exposure. In addition to lung cancer
and mesothelioma, some studies have suggested an association between asbestos exposure and gastrointestinal and colorectal cancers, as well as an elevated risk for cancers of the throat, kidney, esophagus, and gallbladder (3, 4). However, the evidence is inconclusive. Asbestos exposure may also increase the risk of asbestosis (a chronic lung disease that can cause shortness of breath, coughing, and permanent lung damage) and other nonmalignant lung and pleural
disorders, including pleural plaques (changes in the membrane surrounding the lung), pleural thickening, and pleural effusions (abnormal collections of fluid between the thin layers of tissue lining the lung and the wall of the chest cavity). Although pleural plaques are not precursors to lung cancer, evidence suggests
that people with pleural disease caused by asbestos exposure may be at increased risk for lung cancer (9). - Who is at risk for an asbestos-related disease?
Everyone is exposed to asbestos at some time during
their life. Low levels of asbestos are present in the air, water, and soil. However, most people do not become ill from their
exposure. People who become ill from asbestos are usually those who are exposed to it on a regular basis, most often in a
job where they work directly with the material or through substantial environmental contact. Since the early 1940s,
millions of American workers have been exposed to asbestos. Health hazards from asbestos fibers have been recognized in workers
exposed in shipbuilding trades, asbestos mining and milling, manufacturing of asbestos textiles and other asbestos products,
insulation work in the construction and building trades, and a variety of other trades. Demolition workers, drywall removers,
asbestos removal workers, firefighters, and automobile workers also may be exposed to asbestos fibers. However, recent studies
do not support an increased risk of lung cancer or mesothelioma among automobile mechanics exposed to asbestos through brake
repair (10). As a result of Government regulations and improved work practices, today’s workers (those without previous exposure)
are likely to face smaller risks than did those exposed in the past. Those involved in the rescue, recovery, and cleanup
at the site of the September 11, 2001, attacks on the World Trade Center (WTC) in New York City are another group at risk
of developing an asbestos-related disease. Because asbestos was used in the construction of the North Tower of the WTC, when
the building was attacked, hundreds of tons of asbestos were released into the atmosphere. Those at greatest risk include
firefighters, police officers, paramedics, construction workers, and volunteers who worked in the rubble at Ground Zero. Others
at risk include residents in close proximity to the WTC towers and those who attended schools nearby. These populations will
need to be followed to determine the long-term health consequences of their exposure (11). One study found that nearly 70 percent of WTC rescue and recovery workers suffered new or worsened respiratory symptoms
while performing work at the WTC site. The study describes the results of the WTC Worker and Volunteer Medical Screening Program,
which was established to identify and characterize possible WTC-related health effects in responders. The study found that
about 28 percent of those tested had abnormal lung function tests, and 61 percent of those without previous health problems
developed respiratory symptoms (12). However, it is important to note that these symptoms may be related to exposure to debris components other than asbestos.
Although it is clear that health risks from asbestos exposure increase with heavier exposure and longer exposure time,
investigators have found asbestos-related diseases in individuals with only brief exposures. Generally, those who develop
asbestos-related diseases show no signs of illness for a long time after their first exposure. It can take from 10 to 40 years
or more for symptoms of an asbestos-related condition to appear (2). There is some evidence that family members of workers heavily exposed to asbestos face an increased risk of developing
mesothelioma. This risk is thought to result from exposure to asbestos fibers brought into the home on the shoes, clothing,
skin, and hair of workers. To decrease these exposures, Federal law regulates work practices to limit the possibility of asbestos
being brought home in this way. Some employees may be required to shower and change their clothes before they leave work,
store their street clothes in a separate area of the workplace, or wash their work clothes at home separately from other clothes
(2). Cases of mesothelioma have also been seen in individuals without occupational exposure, but who live close to asbestos
mines or have been exposed to fibers carried home by family members working with asbestos (6).
Asbestos was mined and used commercially in North
America beginning in the late 1800s. Its use increased greatly during World War II (3, 4). Since then, asbestos has been used in many industries. For example, the building and construction industry has used it
for strengthening cement and plastics as well as for insulation, roofing, fireproofing, and sound absorption. The shipbuilding
industry has used asbestos to insulate boilers, steampipes, and hot water pipes. The automotive industry uses asbestos in
vehicle brakeshoes and clutch pads. Asbestos has also been used in ceiling and floor tile; paints, coatings, and adhesives;
and plastics. In addition, asbestos has been found in vermiculite-containing consumer garden products and some talc-containing
crayons. In the late 1970s, the U.S. Consumer Product Safety Commission (CPSC) banned the use of asbestos in wallboard
patching compounds and gas fireplaces because the asbestos fibers in these products could be released into the environment
during use. Additionally, in 1979, manufacturers of electric hairdryers voluntarily stopped using asbestos in their products.
In 1989, the U.S. Environmental Protection Agency (EPA) banned all new uses of asbestos; uses established prior to 1989 are
still allowed. The EPA also established regulations that require school systems to inspect for damaged asbestos and to eliminate
or reduce the exposure to occupants by removing the asbestos or encasing it (2). In June 2000, the CPSC concluded that the risk of children’s exposure to asbestos fibers in crayons was extremely
low (1). However, the U.S. manufacturers of these crayons agreed to eliminate talc from their products. In August 2000, the EPA
responded to reports it received about the adverse human health effects associated with exposure to asbestos-contaminated
vermiculite by conducting a series of tests to evaluate the extent of the risk. The EPA investigation concluded that the potential
exposure to asbestos from some vermiculite products poses only a minimal health risk to consumers. The EPA recommended that
consumers reduce the low risk associated with the occasional use of vermiculite during gardening activities by limiting the
amount of dust produced during use. Specifically, the EPA suggested that consumers use vermiculite outdoors or in a well-ventilated
area; keep vermiculite damp while using it; avoid bringing dust from vermiculite use into the home on clothing; and use premixed
potting soil, which is less likely to generate dust. The regulations described above and other actions, coupled with
widespread public concern about the health hazards of asbestos, have resulted in a significant annual decline in U.S. use
of asbestos. Domestic consumption of asbestos amounted to about 803,000 metric tons in 1973, but it had dropped to about 2,400
metric tons by 2005 (3, 5). - What are the health hazards of exposure to asbestos?
People may be exposed to asbestos in their workplace, their communities,
or their homes. If products containing asbestos are disturbed, tiny asbestos fibers are released into the air. When asbestos
fibers are breathed in, they may get trapped in the lungs and remain there for a long time. Over time, these fibers can accumulate
and cause scarring and inflammation, which can affect breathing and lead to serious health problems (6). Asbestos has been classified as a known human carcinogen (a substance that causes cancer) by the U.S. Department of Health and Human Services, the EPA, and the International Agency
for Research on Cancer (2, 3, 7, 8). Studies have shown that exposure to asbestos may increase the risk of lung cancer and mesothelioma (a relatively rare cancer
of the thin membranes that line the chest and abdomen). Although rare, mesothelioma is the most common form of cancer associated with asbestos exposure. In addition to lung cancer
and mesothelioma, some studies have suggested an association between asbestos exposure and gastrointestinal and colorectal cancers, as well as an elevated risk for cancers of the throat, kidney, esophagus, and gallbladder (3, 4). However, the evidence is inconclusive. Asbestos exposure may also increase the risk of asbestosis (a chronic lung disease that can cause shortness of breath, coughing, and permanent lung damage) and other nonmalignant lung and pleural
disorders, including pleural plaques (changes in the membrane surrounding the lung), pleural thickening, and pleural effusions (abnormal collections of fluid between the thin layers of tissue lining the lung and the wall of the chest cavity). Although pleural plaques are not precursors to lung cancer, evidence suggests
that people with pleural disease caused by asbestos exposure may be at increased risk for lung cancer (9). - Who is at risk for an asbestos-related disease?
Everyone is exposed to asbestos at some time during
their life. Low levels of asbestos are present in the air, water, and soil. However, most people do not become ill from their
exposure. People who become ill from asbestos are usually those who are exposed to it on a regular basis, most often in a
job where they work directly with the material or through substantial environmental contact. Since the early 1940s,
millions of American workers have been exposed to asbestos. Health hazards from asbestos fibers have been recognized in workers
exposed in shipbuilding trades, asbestos mining and milling, manufacturing of asbestos textiles and other asbestos products,
insulation work in the construction and building trades, and a variety of other trades. Demolition workers, drywall removers,
asbestos removal workers, firefighters, and automobile workers also may be exposed to asbestos fibers. However, recent studies
do not support an increased risk of lung cancer or mesothelioma among automobile mechanics exposed to asbestos through brake
repair (10). As a result of Government regulations and improved work practices, today’s workers (those without previous exposure)
are likely to face smaller risks than did those exposed in the past. Those involved in the rescue, recovery, and cleanup
at the site of the September 11, 2001, attacks on the World Trade Center (WTC) in New York City are another group at risk
of developing an asbestos-related disease. Because asbestos was used in the construction of the North Tower of the WTC, when
the building was attacked, hundreds of tons of asbestos were released into the atmosphere. Those at greatest risk include
firefighters, police officers, paramedics, construction workers, and volunteers who worked in the rubble at Ground Zero. Others
at risk include residents in close proximity to the WTC towers and those who attended schools nearby. These populations will
need to be followed to determine the long-term health consequences of their exposure (11). One study found that nearly 70 percent of WTC rescue and recovery workers suffered new or worsened respiratory symptoms
while performing work at the WTC site. The study describes the results of the WTC Worker and Volunteer Medical Screening Program,
which was established to identify and characterize possible WTC-related health effects in responders. The study found that
about 28 percent of those tested had abnormal lung function tests, and 61 percent of those without previous health problems
developed respiratory symptoms (12). However, it is important to note that these symptoms may be related to exposure to debris components other than asbestos.
Although it is clear that health risks from asbestos exposure increase with heavier exposure and longer exposure time,
investigators have found asbestos-related diseases in individuals with only brief exposures. Generally, those who develop
asbestos-related diseases show no signs of illness for a long time after their first exposure. It can take from 10 to 40 years
or more for symptoms of an asbestos-related condition to appear (2). There is some evidence that family members of workers heavily exposed to asbestos face an increased risk of developing
mesothelioma. This risk is thought to result from exposure to asbestos fibers brought into the home on the shoes, clothing,
skin, and hair of workers. To decrease these exposures, Federal law regulates work practices to limit the possibility of asbestos
being brought home in this way. Some employees may be required to shower and change their clothes before they leave work,
store their street clothes in a separate area of the workplace, or wash their work clothes at home separately from other clothes
(2). Cases of mesothelioma have also been seen in individuals without occupational exposure, but who live close to asbestos
mines or have been exposed to fibers carried home by family members working with asbestos (6).
People may be exposed to asbestos in their workplace, their communities,
or their homes. If products containing asbestos are disturbed, tiny asbestos fibers are released into the air. When asbestos
fibers are breathed in, they may get trapped in the lungs and remain there for a long time. Over time, these fibers can accumulate
and cause scarring and inflammation, which can affect breathing and lead to serious health problems (6). Asbestos has been classified as a known human carcinogen (a substance that causes cancer) by the U.S. Department of Health and Human Services, the EPA, and the International Agency
for Research on Cancer (2, 3, 7, 8). Studies have shown that exposure to asbestos may increase the risk of lung cancer and mesothelioma (a relatively rare cancer
of the thin membranes that line the chest and abdomen). Although rare, mesothelioma is the most common form of cancer associated with asbestos exposure. In addition to lung cancer
and mesothelioma, some studies have suggested an association between asbestos exposure and gastrointestinal and colorectal cancers, as well as an elevated risk for cancers of the throat, kidney, esophagus, and gallbladder (3, 4). However, the evidence is inconclusive. Asbestos exposure may also increase the risk of asbestosis (a chronic lung disease that can cause shortness of breath, coughing, and permanent lung damage) and other nonmalignant lung and pleural
disorders, including pleural plaques (changes in the membrane surrounding the lung), pleural thickening, and pleural effusions (abnormal collections of fluid between the thin layers of tissue lining the lung and the wall of the chest cavity). Although pleural plaques are not precursors to lung cancer, evidence suggests
that people with pleural disease caused by asbestos exposure may be at increased risk for lung cancer (9). - Who is at risk for an asbestos-related disease?
Everyone is exposed to asbestos at some time during
their life. Low levels of asbestos are present in the air, water, and soil. However, most people do not become ill from their
exposure. People who become ill from asbestos are usually those who are exposed to it on a regular basis, most often in a
job where they work directly with the material or through substantial environmental contact. Since the early 1940s,
millions of American workers have been exposed to asbestos. Health hazards from asbestos fibers have been recognized in workers
exposed in shipbuilding trades, asbestos mining and milling, manufacturing of asbestos textiles and other asbestos products,
insulation work in the construction and building trades, and a variety of other trades. Demolition workers, drywall removers,
asbestos removal workers, firefighters, and automobile workers also may be exposed to asbestos fibers. However, recent studies
do not support an increased risk of lung cancer or mesothelioma among automobile mechanics exposed to asbestos through brake
repair (10). As a result of Government regulations and improved work practices, today’s workers (those without previous exposure)
are likely to face smaller risks than did those exposed in the past. Those involved in the rescue, recovery, and cleanup
at the site of the September 11, 2001, attacks on the World Trade Center (WTC) in New York City are another group at risk
of developing an asbestos-related disease. Because asbestos was used in the construction of the North Tower of the WTC, when
the building was attacked, hundreds of tons of asbestos were released into the atmosphere. Those at greatest risk include
firefighters, police officers, paramedics, construction workers, and volunteers who worked in the rubble at Ground Zero. Others
at risk include residents in close proximity to the WTC towers and those who attended schools nearby. These populations will
need to be followed to determine the long-term health consequences of their exposure (11). One study found that nearly 70 percent of WTC rescue and recovery workers suffered new or worsened respiratory symptoms
while performing work at the WTC site. The study describes the results of the WTC Worker and Volunteer Medical Screening Program,
which was established to identify and characterize possible WTC-related health effects in responders. The study found that
about 28 percent of those tested had abnormal lung function tests, and 61 percent of those without previous health problems
developed respiratory symptoms (12). However, it is important to note that these symptoms may be related to exposure to debris components other than asbestos.
Although it is clear that health risks from asbestos exposure increase with heavier exposure and longer exposure time,
investigators have found asbestos-related diseases in individuals with only brief exposures. Generally, those who develop
asbestos-related diseases show no signs of illness for a long time after their first exposure. It can take from 10 to 40 years
or more for symptoms of an asbestos-related condition to appear (2). There is some evidence that family members of workers heavily exposed to asbestos face an increased risk of developing
mesothelioma. This risk is thought to result from exposure to asbestos fibers brought into the home on the shoes, clothing,
skin, and hair of workers. To decrease these exposures, Federal law regulates work practices to limit the possibility of asbestos
being brought home in this way. Some employees may be required to shower and change their clothes before they leave work,
store their street clothes in a separate area of the workplace, or wash their work clothes at home separately from other clothes
(2). Cases of mesothelioma have also been seen in individuals without occupational exposure, but who live close to asbestos
mines or have been exposed to fibers carried home by family members working with asbestos (6).
Everyone is exposed to asbestos at some time during their life. Low levels
of asbestos are present in the air, water, and soil. However, most people do not become ill from their exposure. People who
become ill from asbestos are usually those who are exposed to it on a regular basis, most often in a job where they work directly
with the material or through substantial environmental contact. Since the early 1940s, millions of American workers
have been exposed to asbestos. Health hazards from asbestos fibers have been recognized in workers exposed in shipbuilding
trades, asbestos mining and milling, manufacturing of asbestos textiles and other asbestos products, insulation work in the
construction and building trades, and a variety of other trades. Demolition workers, drywall removers, asbestos removal workers,
firefighters, and automobile workers also may be exposed to asbestos fibers. However, recent studies do not support an increased
risk of lung cancer or mesothelioma among automobile mechanics exposed to asbestos through brake repair (10). As a result of Government regulations and improved work practices, today’s workers (those without previous exposure)
are likely to face smaller risks than did those exposed in the past. Those involved in the rescue, recovery, and cleanup
at the site of the September 11, 2001, attacks on the World Trade Center (WTC) in New York City are another group at risk
of developing an asbestos-related disease. Because asbestos was used in the construction of the North Tower of the WTC, when
the building was attacked, hundreds of tons of asbestos were released into the atmosphere. Those at greatest risk include
firefighters, police officers, paramedics, construction workers, and volunteers who worked in the rubble at Ground Zero. Others
at risk include residents in close proximity to the WTC towers and those who attended schools nearby. These populations will
need to be followed to determine the long-term health consequences of their exposure (11). One study found that nearly 70 percent of WTC rescue and recovery workers suffered new or worsened respiratory symptoms
while performing work at the WTC site. The study describes the results of the WTC Worker and Volunteer Medical Screening Program,
which was established to identify and characterize possible WTC-related health effects in responders. The study found that
about 28 percent of those tested had abnormal lung function tests, and 61 percent of those without previous health problems
developed respiratory symptoms (12). However, it is important to note that these symptoms may be related to exposure to debris components other than asbestos.
Although it is clear that health risks from asbestos exposure increase with heavier exposure and longer exposure time,
investigators have found asbestos-related diseases in individuals with only brief exposures. Generally, those who develop
asbestos-related diseases show no signs of illness for a long time after their first exposure. It can take from 10 to 40 years
or more for symptoms of an asbestos-related condition to appear (2). There is some evidence that family members of workers heavily exposed to asbestos face an increased risk of developing
mesothelioma. This risk is thought to result from exposure to asbestos fibers brought into the home on the shoes, clothing,
skin, and hair of workers. To decrease these exposures, Federal law regulates work practices to limit the possibility of asbestos
being brought home in this way. Some employees may be required to shower and change their clothes before they leave work,
store their street clothes in a separate area of the workplace, or wash their work clothes at home separately from other clothes
(2). Cases of mesothelioma have also been seen in individuals without occupational exposure, but who live close to asbestos
mines or have been exposed to fibers carried home by family members working with asbestos (6).
Phase 1 Enviromental Site Assessment
A Environmental Site Assessment is a report prepared for a real estate
holding which identifies potential or existing environmental contamination liabilities. The analysis, often called a ESA, typically addresses both
the underlying land as well as physical improvements to the property; however, techniques applied in a Phase I ESA never include
actual collection of physical samples or chemical analyses of any kind. Scrutiny of the land includes examination of potential
soil contamination, groundwater quality, surface water quality and sometimes issues related to hazardous substance uptake by biota. The examination of a site may include: definition of any chemical residues
within structures; identification of possible asbestos containing building materials; inventory of hazardous substances stored or used on site; assessment of mold and mildew; and evaluation of other indoor air quality parameters[1]. Contaminated sites are often referred to as "brownfield sites." In severe cases, brownfield sites may be added to the National Priorities List where they will be subject to the U.S. Environmental Protection Agency's
Superfund program. Actual
sampling of soil, air, groundwater and/or building materials is typically not conducted during a Phase I ESA. The Phase I
ESA is generally considered the first step in the process of environmental due diligence. This type of study is alternatively called a Level I Environmental Site Assessment.
Standards for performing a Phase I site assessment have been promulgated by the US EPA[2] and are based in part on ASTM in Standard E1527-05.[3] If a site is considered contaminated, a Phase II Environmental Site Assessment may be conducted, ASTM test E1903, a
more detailed investigation involving chemical analysis for hazardous substances and/or petroleum hydrocarbons.
Actions triggering the Phase I ESA
A variety of actions[8] can cause a Phase I study to be performed for a commercial property, the most common being:
- Asbestos
Containing Building Materials (ACBM)
- Lead-Based Paint
- Lead in Drinking Water
- Mold
- Radon
- Wetlands
- Threatened and Endangered Species
- Earthquake Hazard
- Vapor Intrusion
- Purchase
of real property by a person or entity not previously on title.
- Contemplation by a new lender to provide a loan on the subject real estate.
- Partnership buyout or principal redistribution of ownership.
- Application to a public agency for change of use or other discretionary land use permit.
- Existing property owner’s desire to understand toxic history of the property.
- Compulsion by a regulatory agency who suspects toxic conditions on the site.
- Divestiture
of properties
Phase II Environmental Site Assessment is an investigation which collects original
samples of soil, groundwater or building materials to analyze for quantitative values of various contaminants[9]. This investigation is normally undertaken when a Phase I ESA determines a likelihood of site contamination. The most
frequent substances tested are petroleum hydrocarbons, heavy metals, pesticides, solvents, asbestos and mold.
Phase III Environmental Site Assessment is an investigation involving
remediation of a site. Phase III investigations aim to delineate the physical extent of contamination based on recommendations
made in Phase II assessments. Phase III investigations may involve intensive testing, sampling, and monitoring, “fate
and transport” studies and other modeling, and the design of feasibility studies for remediation and remedial plans.
This study normally involves assessment of alternative cleanup methods, costs and logistics. The associated reportage details
the steps taken to perform site cleanup and the follow-up monitoring for residual contaminants.
A
variety of actions[8] can cause a Phase I study to be performed for a commercial property, the most common being:
- Asbestos
Containing Building Materials (ACBM)
- Lead-Based Paint
- Lead in Drinking Water
- Mold
- Radon
- Wetlands
- Threatened and Endangered Species
- Earthquake Hazard
- Vapor Intrusion
- Purchase
of real property by a person or entity not previously on title.
- Contemplation by a new lender to provide a loan on the subject real estate.
- Partnership buyout or principal redistribution of ownership.
- Application to a public agency for change of use or other discretionary land use permit.
- Existing property owner’s desire to understand toxic history of the property.
- Compulsion by a regulatory agency who suspects toxic conditions on the site.
- Divestiture
of properties
Phase II Environmental Site Assessment is an investigation which collects original
samples of soil, groundwater or building materials to analyze for quantitative values of various contaminants[9]. This investigation is normally undertaken when a Phase I ESA determines a likelihood of site contamination. The most
frequent substances tested are petroleum hydrocarbons, heavy metals, pesticides, solvents, asbestos and mold.
Phase III Environmental Site Assessment is an investigation involving
remediation of a site. Phase III investigations aim to delineate the physical extent of contamination based on recommendations
made in Phase II assessments. Phase III investigations may involve intensive testing, sampling, and monitoring, “fate
and transport” studies and other modeling, and the design of feasibility studies for remediation and remedial plans.
This study normally involves assessment of alternative cleanup methods, costs and logistics. The associated reportage details
the steps taken to perform site cleanup and the follow-up monitoring for residual contaminants.
Serving all of Georgia including: Marietta Smyrna Milton Alpharetta Roswell Duluth Cumming Sugar Hill Acworth Kennesaw Woodstock Chamblee Norcross Tucker Atlanta Sandy Springs Buckhead Midtown Lawrenceville Lilburn Fairburn Social Circle Fayetteville Peachtree City Riverdale Stone Mountain Cartersville Powder Springs Hiram Douglasville Carrollton Decatur Newnan Suwanee Emerson Dallas Dunwoody Calhoun Emerson Taylorsville Rockmart Cedartown Dalton Covington Conyers Austell Mableton Jasper Dahlonega Gainesville Rome Jonesboro Bartow County Cobb
County Gwinnett County Fulton County Fayette County Cherokee County Dekalb County Rockdale County Forsyth County Floyd County St. Ives Country Club Brookstone Country Club of the South Sugarloaf Wexford Tuxford Crooked Creek Enclave at Glen Abbey Leeward Walk Nesbit Lakes Rivermont Seven Oaks Windward Brookfield Country Club Horseshoe Bend Litchfield Hundred Sentinel on the River Hardage Farms Highland Pointe Stonebridge Walker's Ridge Hamilton Mill Chateau Elan Sweet
Bottom Plantation Thornhill AmmerseeLakes Montclair Winfield on the River Quail Hollow Riverwood Prestwick Sugar Mill Parsons Run Oakmont Abbotts Bridge Place St. Marlo Country Club Chattahoochee
Reserve Polo Fields Creekstone Estates Lake Lanier Country Club Lighthouse Harbour Windermere James Creek Foxhall Edenwilde Inverness Saddle Creek Martins Landing River Terrace Bentwater Burnt Hickory Lakes Camden Pointe Liberty Square McEver Park Picketts Plantation Summerfield Village at Oak Grove Waterford Club Burnt Hickory Registry Blue Springs Creekside Heritage Club Hedgerose Legacy Park Liberty Commons Marietta Country Club Ridenour Bridgemill Governors
Preserve Towne Mill Woodmont Bradshaw Farms Copper Ridge Whitfield at Riverwalk Towne Lake Weatherstone Towne Lake Hills South Brookshire The Arbors Summerchase Wyngate Deer Run Woodlands Towne Lake Hills East Towne Lake Hills West Kingston Square Towne Lake Hills North Eagle
Watch Estates at Towne Lake Oak Glen Cedar Crest Canterbury Peppermill Mission Ridge The
Farm Waterford
Chattanooga Birmingham and many out of state areas.*
Chicago and
all suburbs 847 989-0211 including: Elgin East Dundee West Dundee Sleepy Hollow Cook County Algonquin Batavia McHenry St. Charles Geneva Bartlett Hanover Park Bloomingdale
Aurora Kane County Lake County McHenry County Schaumburg Hoffman Estates Carpentersville
Streamwood Chicago Warrenville West Chicago Roselle Kane County Cook County Lake County DuPage County Roselle Libertyville Wayne Naperville Palatine Hampshire
Pingree Grove McHenry County Lake Geneva Wisconsin Barrington Elburn Sugar Grove Wheaton
Winfield Glendale Heights Carol Stream Lily Lake Plato Center Arlington Heights Glen
Ellyn Lombard Elmhurst Libertyville Addison Bensenville Wood Dale Itasca Elk
Grove Village Huntley Barrington Hills Inverness Lake Zurich Rolling Meadows Woodstock
Mt Prospect DesPlains Northbrook Wheeling Cary Wonderlake Fox River Grove Lakewood
Bull Valley Hinsdale Oak Brook Rosemont Dekalb Lake in the hills Crystal Lake South Elgin Rockford
We inspect in Florida: Clearwater St. Petersburg Tampa Dunedin Safety Harbor Pinellas County Hillsborough County Oldsmar Palm Harbor Bradenton Largo Pinellas
Park Treasure Island Seminole Hudson Port Richey Belleair Plant City Lakeland Orlando Winter Springs Daytona Mt. Dora Longwood Sanford Bay Pines Crystal Beach Gulf Port Indian Rocks Beach North Redington Beach Tarpon Springs Plant City Dade City Bradenton Beach
Asbestos Inspection and Testing call:
1-800-665-3522 in Florida 770 590-7880 in Georgia 847 989-0211 in Illinois
Stucco
Contractor Listing : Quality Synthetic Stucco - Mr. Tim Sims 770 845-4061 - 770 974-0276
Unlimited Exteriors - Mr. Randy James 770 356-5174 - 678 715-7668
Quality Home Improvements - Mr. Ross Jurca 404 259-4565 Mold Remediation Contractor :
Global Prevetion Services - Mr.
J.D. Ortega 678 414-0456
This site is dedicated to the memory
of my loving father Charles Zaeske and all WWII veterans. I will not forget what you have done for all of us free Americans
and all our troops around the world God bless and keep you safe.
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