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Gilbert®
ShattercatchTM


The
Choice Shatter-Coated Lamp for Professional Flytraps

FEP
COATED Osram/Sylvania® 350BL Phosphor UV Lamp
In choosing a
particular type of shatter coating material, there are choices
to be made between several high levels of shatter containment
and their varying ability to catch flies. There are some amazing
materials out there.
Gilbert(R) has
selected an FEP coating is at the top of the list of lamp
coating materials for allowing UV passage and appears to be
immune to UV degradation effects. FEP is excellent at containing
glass and is superior at attracting flies.
Professional
Flytraps
FEP coating
Insect Attractant Lamps
Gilbert®
discovered, over 30 years ago, that the best lamps for
professional flytraps
were all (Osram) Sylvania® 350 BL Phosphor Lamps.
Please note,
there is a major difference between the Osram
"Sylvania®" lamps made in North America that we use
(versus those made in Europe*). There are actually two different
manufacturing companies, Osram Sylvania® and S.L.I. Both still
use the "Sylvania®" brand name, as well as, the
350BL lamp designation. They are not the same company, nor
the same lamps. Our tests show the Osram Sylvania® 350BL (Made
In North America) 20 and 40 watt versions to be superior fly
attractant lamps. There are recent claims being made (or remade)
for a supossedly "new" European Lamp that peaks at 365
nm. We prefer the North American 350BL (which peaks at 352 nm),
whether it's ShatterCatch(TM) coated or not.
Gilbert
Lamp Replacement Recommendations
***
"Replace insect attractant lamps once each year, in the
spring!"
***
This Rule of
Thumb originated with my father, Don Gilbert. It was derived
from the knowledge that lamps do, in fact, deteriorate over time
(see graphs below)*, combined with customers observations that
"our traps are not working as well as they did last
year", and subsequent research. He got even more specific,
saying that insect attractant lamps have an average, effective
life of nine and one half months.
Recommending "spring" replacement simply insures
traps are operating at their best during the summer insect
season. This recommendation has been copied by most everyone in
the industry and is routinely quoted as some sort of absolute
truth. It's time tested to satisfy the vast majority of
circumstances, but it is not an unquestionable fact.
***
Perhaps,
attractant lamps need to be replaced more often in a hospital
with specific cross-contamination problems, in facilities where
intravenous solutions are manufactured, or in climates with
year-round insect problems? Perhaps, they could be replaced less
often in facilities where there are fewer flies to worry about
or where fly control is relatively unimportant?
***
If you're
experimentally inclined, consider replacing half your lamps
after one year. Then, compare how the new lamps perform relative
to the older ones. Swap lamp positions, be as fair as possible,
and let us know what you find.
I believe you
will find, this (time tested) rule of thumb fits the vast
majority of circumstances:
"Replace
insect attractant lamps once each year in the
spring!"
REFERENCES:
* According to the manufacturer, the average output of our
attractant lamp** (when matched with the proper ballast) will
decrease from 100% to 80% in the first 100 hours (4 days), to
72% in 500 hours (20 days), to 68% in 1000 hours (41 days), and
to 60% in 2000 hours (83 days).
The deterioration continues at a decreasing rate, approximately
3% a month. 15 watt lamps will deteriorate a little faster than
20 watt lamps and 20 watt lamps a little faster than 40
watt.
I mentioned "proper ballast" because at least one
flytrap manufacturer overdrives its lamps with two ballasts,
increasing its effectiveness for about a week, but significantly
increasing the deterioration rate, quickly reducing
effectiveness.
_____________________________
Safety
Information
The following statement is reprinted from the Gilbert®
Professional Flytraps Owner's Manual:
The FDA has
measured ultraviolet radiation emission from a typical insect
attracting device and has concluded that there is not a
significant concern about acute health problems. The conclusion
was based on Threshold Limit Values (TLV) of exposure as
recommended by the American Conference on Governmental
Industrial Hygienists (ACGIH) as presented and discussed by
Phillips (1983). However, since it's scientifically impossible
to rule out possible long-term exposure effects, on our own
accord, as a purely precautionary measure, we suggest it might
be prudent for operators to position these devices so that
employees are not required to work continuously in close eye
level proximity, i.e. over a sink or table where an employee
would be stationed within one meter continuously.
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PRODUCT
SAFETY DATA SHEET
PSDS NO. 1.1.4
FLUORESCENT BLACKLIGHT LAMPS |
 |
Sylvania
brand Fluorescent Lamps manufactured by OSRAM SYLVANIA INC., are
exempted from the requirements of the OSHA Hazard communication
Standard (29 CFR 1910.1200) because they are
"articles." The following information is provided by
OSRAM SYLVANIA INC. as a courtesy to its customers
| I.
PRODUCT IDENTIFICATION |
|
Trade
Name (as labeled)
Manufacturer
|
Sylvania
"350BL" Blacklight Flourescent Lamps
OSRAM
SYLVANIA INC.
75 Sylvan Street
Danvers, MA 01923
(508) 777-1900
|
| II.
HAZARDOUS INGREDIENTS |
THERE
ARE NO KNOWN HEALTH HAZARDS FROM EXPOSURE TO LAMPS THAT ARE
INTACT. If lamp is broken, the following materials may be
released:
|
Chemical
Name
|
CAS
NUMBER
|
%
by wt.
|
Exposure
Limits in Air (mg/cubic m)
|
|
|
|
|
ACGIH
(TLV
|
OSHA
(PEL)
|
|
Glass
(Soda Lime)
Mercury (Hg)
Lead Oxide
Phosphor type 2011
(Barium Mesosilicate; Lead)
(Limits as Lead; -Pb)
Argon
|
-
7439-97-6
1317-36-8
12650-28-1
7439-92-1
007-440-371
|
80-90
<0.05
0.2-2.0
1.5-2.5
<0.05
<0.05:
|
0.1
(Resp. Silica)
0.05
0.15
-
0.15
|
0.1
0.05
-
0.05
|
These
chemicals are subject to the reporting requirements of section
313 of Title III of the Superfund Amendments and Reauthorization
Act of 1986 and 40 CFR Part 372: 10 mg/cubic m / % silica + 2 (Respirable
Dust) The TLV for a simple asphyxiant is a minimal atmospheric
oxygen content of 18% by volume, at 1 atmospheric pressure.
Not applicable to
intact lamp.
| IV. FIRE
& EXPLOSION HAZARDS |
Flammability:
Non-combustable
Fire Extinguishing Materials: Use extinguishing agents
suitable for surrounding fire.
Special Firefighting Procedure: Use self-contained
breathing apparatus to prevent inhalation of dust and/or fumes
that may be generated from broken lamps during firefighting
activities.
Unusual Fire and Explosion Hazards: When exposed to high
temperature, toxic fumes may be released from broken lamps.
THERE
ARE NO KNOWN HEALTH HAZARDS FROM EXPOSURE TO LAMPS THAT ARE
INTACT. No adverse effects are expected from occasional exposure
to broken lamps. As a matter of good practice, avoid prolonged or
frequent exposure to broken lamps unless there is adequate
ventilation. The major hazard from broken lamps is the possibility
of sustaining glass cuts.
EFFECTS OF OVEREXPOSURE
TO BROKEN LAMPS BY INHALATION, INGESTION, OR CONTACT WITH SKIN OR EYE:
Mercury-
Exposure to high concentrations of vapors for brief periods can
cause acute symptoms such as pneumonitis, chest pains, shortness
of breath, coughing, gingivitis, salivation and possibily
stomatitis. Chronic exposure may cause tremors and
neuropsychiatric problems. May cause redness and irritation as a
result of contact with skin and/or eyes.
Lead-
Ingestion and inhalation of lead dust or fumes must be avoided.
Irritation of the eyes and respiratory tract may occur. Excessive
lead absorption is toxic and may include symptoms such as anemia,
weakness, abdominal pain, and kidney disease. However, the
chemical inertness and insolubility of this material is expected
to reduce the potenial for systemic lead toxicity.
Silica-
Exposure to crystilline silica dust may cause scarring of the
lungs (Silicosis), resulting in shortness of breath and coughing.
Phosphor-
Inhalation of insoluble barium compounds has been reported to
cause benign pneumoconiosis with no specific smyptoms and no
changes in pulmonary function. Exposure to lead compounds is known
to have adverse effects on a number of organ systems. The chief
effects of lead poisoning in the industrial setting are anemia,
nervous system effects (psychic and neurological disorders), and
kidney injury. However, the chemical inertness and insolubility of
this material is expected to reduce the potential for systemic
toxicity.
Argon-
Inert gasses such as argon cause asphyxia by displacing the
ambient oxygen. Some symptoms of asphyxia are headache and
dizziness.
EMERGENCY
AND FIRST AID PROCEDURES:
Glass
Cuts: Perform normal first aid procedures. Seek medical
attention as required.
Inhalation: If discomfort, irritation or symptoms of
pulmonary involvement develop, remove from exposure and seek
medical attention.
Ingestion: In the unlikely event of ingestion of a large
quantity of material, seek medical attention.
Contact, Skin: Thoroughly wash affected area with mild soap
or detergent and water and prevent further contact. Seek medical
attention if irritation occurs.
Contact, Eye: Wash eyes, including under eyelids,
immediately and with copious amounts of water for 15 minutes. Seek
medical attention.
CARCINOGENIC
ASSESSMENT (NTP ANNUAL REPORT, IARC MONOGRAPHS, OTHER):
Crystalline
silica is a suspected carcinogen by NTP, IARC or OSHA. Crystalline
silica is changed to an amorphous form of silica in the production
of this product.
Stability:
Stable
Conditions to avoid: None for intact lamps.
Incompatability (materials to avoid): None for intact
lamps.
Hazardous decomposition products (including combustion
products): None for intact lamps.
Hazardous polymerization products: Will not occur.
| VII. PROCEDURES
FOR DISPOSAL OF BROKEN LAMP |
Ventilate
area where breakage occurred. Clean up with mercury vacuum cleaner
or other suitable means that avoid dust and mercury vapor
generation. Take usual precautions for collection of broken glass.
Clean-up requires special care due to mercury droplet
proliferation. Place materials in closed containers to avoid
generating dust.
It is
the responsibility of the waste generator to ensure proper
classification of waste products. To that end, TCLP tests should
be condusted on all waste products, including this one, to
determine the ultimate disposition in accordance with applicable
federal, state and local regulations.
| VIII. SPECIAL
HANDLING INFORMATION - FOR BROKEN LAMPS |
Ventilation:
Use adequate general and local exhaust ventilation to maintain
exposure levels below the PEL ot TLV limits. If such ventilation
is unavailable, use respirators as specified below.
Respiratory
Protection: Use appropriate NIOSH approved respirator if
airborne dust concentrations exceed the pertinant PEL or TLV
limits. All appropriate requirements set forth in 29 CFR 1910.134
should be met.
Eye
Protection: OSHA specified safety glasses, goggles or face
shield are recommended if lamps are being broken.
Protective
Clothing: OSHA specified gloves are recommended for dealing
with broken lamps.
Hygienic
Practices: After handling broken lamps, wash thoroughly before
eating, smoking or using toilet facilities.
Although
OSRAM SYLVANIA INC. attempts to provide current and accurate
information herein, it makes no representations regarding the
accuracy or completeness of the information and assumes no
liability for any loss, damage or injury of any kind which may
result from, or arise out of, the use of, or reliance on the
information by any person.
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In
case of questions, please call:
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OSRAM
SYLVANIA INC.
Product Safety Engineer
(978) 777-1900.
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Mantis
Non-Electrocuting Glueboard FlyTraps Go Here
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