Jay Water Works
2003 Water Quality Report
2003 was the beginning of change for Jay Water
Works (JWW). New construction and rehabilitation projects began in the latter
half of 2003 and will be completed by mid 2004. These projects will enable JWW
to meet and exceed stricter regulations.
One of these projects expands filter size,
replaces filter media, and installs a new type of underdrain.
Underdrains are the mechanism which support the media
and allows filtered water to exit the filter. The new underdrains
allow for the use of less media while increasing
filter flow.
A new construction project will add air scouring
to the filters. This pumps large quantities of air bubbles through piping at
the bottom of the filter media. These air bubble will aid in cleaning the media
when backwashing the filters and allow less water use during the backwash
process. This project entailed the addition of two air blowers and piping.
Another addition to the backwash process will be
filter-to-waste piping. This allows us to redirect the filtered water passing
out of the filter to the decant pond. The first 15 minutes of water processed
after a filter has been backwashed tends to have a high turbidity.
The addition of two booster pumps and the
redesigning of the distribution system will kill two birds with one stone. The
new system uses the stand pipe behind the plant as a clearwell,
allowing for longer retention time to enhance the effectiveness of the chlorine
added after filtration. The water will return to the plant from the stand pipe
and be pumped to the town via the two new 20 hp booster pumps. The booster
pumps will maintain a steady supply of water to the consumer and reduce or
eliminate low pressure problems during peak flow periods.
All air
actuated valves will be replaced with electrically actuated valves, eliminating
the need for noisy and troublesome air compressors. This will be accompanied by
new control panels operating the filters.
A Supervisory Control and Data Acquisition (SCADA) system
will be installed. This system enables greater control of the plant from an on
site computer and also from remote computers. It will also increase data
collection from online instrumentation and allow greater ease when correlating
data.
The work being done on the plant is coming just in time for
the new regulations going in to effect in 2004 and the following years. One of
these new regulations concerns the addition of chlorine and its by-products.
Our plant will begin testing for Total Trihalomethanes
(TTHM), consisting of 4 chlorine by-products, and Total Organic Carbon (TOC),
which is an indicator of the amount of organic material in the water which can
react with chlorine to produce the by-products. All of the new regulations will
help ensure that you receive the healthiest water possible.

JWW treats surface water drawn from
Microbiological Contaminants
|
Substance |
MCL |
Maximum Level Detected |
EPA MCLG |
Violations |
Possible Sources of Contamination |
|
Turbidity (NTU) |
TT = 5.0 |
0.41 NTU in June |
n/a |
NONE |
Geology, Soil runoff |
|
Turbidity (NTU) |
TT ≤
0.5 NTU in 95% of monthly samples |
100 % samples ≤ 0.5 NTU
- November |
n/a |
NONE |
Geology, Soil runoff |
|
Total Coliform Bacteria |
One
sample per month testing positive for coliform |
One sample on |
No
samples per month testing positive for coliform |
NONE |
Naturally present
in the environment |
Radionuclides
|
Substance |
MCL |
Maximum
Level Detected |
EPA
MCLG |
VIOLATION |
Possible
Sources of Contamination |
|
Alpha Emitters∞ |
15 pCi/L |
0.55 pCi/L |
0 pCi/L |
NONE |
Geology |
|
Beta / Photon Emitters∞ |
50 pCi/L |
2.54 pCi/L |
0 pCi/L |
NONE |
Geology |
Inorganic
Contaminants
|
Substance |
MCL |
Maximum
Level Detected |
EPA
MCLG |
VIOLATIONS |
Possible
sources of Contamination |
|
Nitrite-Nitrate
as N |
10 ppm |
0.627
ppm |
10 ppm |
NONE |
Runoff from fertilizer use, septic tanks, sewage |
|
Fluoride |
4 ppm |
1.26 |
4ppm |
NONE |
Erosion of natural deposits, added at JWW |
|
Barium‡ |
2 ppm |
.041
ppm |
2 ppm |
NONE |
Erosion of natural deposits; mining |
Copper (Regulated at customer tap)
|
Substance |
Action
Level |
90
% of samples below this level |
EPA
MCLG
|
VIOLATIONS |
Possible
Sources of Contamination |
|
Copper |
1300 ppb |
36 ppb |
0 ppb |
NONE |
Corrosion of home water pipes |
‡ This test last performed in 1995
∞ This test last performed in 2000
Definitions:
Maximum Contaminant
Level (MCL) -The highest level of a contaminant that is allowed
in the drinking water. MCL's are set as close to the MCLG's as feasibly possible using the best available
treatment technology.
Maximum Containment
Level Goal (MCLG) - The level
of a contaminant in drinking water below which there is no known or expected
risk to health. MCLG's allow for a margin
of safety.
Action Level (
Parts per million (ppm) or milligrams per
liter (mg/L) - One part of contaminant per million parts of water.
Parts per billion (ppb) or micrograms per liter (ug/L) - One
part of a contaminant per billion parts of water.
Nephelometric Turbidity Unit
(NTU) - A measure of the clarity of water. A
Turbidity of 5.0 NTU is just noticeable to the average person.
Picocuries per liter (pCi/L) - A measure of the radioactivity in water.
Treatment Technique
(TT) - A treatment technique is a
required process intended to reduce the level of a contaminant in drinking
water.
JWW routinely monitors for constituents in your drinking water
according to Federal and State laws. This table shows the results of our
monitoring for the period of January 1st to
There are seventy-six regulated contaminants that community water
systems are required to test for including microbiological, radioactive,
inorganic, synthetic organic including pesticides and herbicides, and volatile
organic contaminants. We are exempt from
testing for synthetic organic contaminants based upon a vulnerability
assessment conducted by the Oklahoma Department of Environmental Quality. The table above shows only those contaminants
that were detected.
Drinking water, including bottled water, may
reasonably be expected to contain at least small amounts of some
contaminants. The presence of
contaminants does not necessarily indicate that water poses a health risk. More information about contaminants and
potential health effects can be obtained by calling the EPA’s Safe Drinking
Water Hotline (800-426-4791).
The sources of drinking water (both tap
water and bottled water) include rivers, lakes, streams, ponds, reservoirs,
springs, and wells. As water travels
over the surface of the land or through the ground, it dissolves naturally
occurring minerals and, in some cases, radioactive material, and can pick up
substances resulting from the presence of animals or from human activity.
We have a source water protection plan
available from our office that provides more information such as potential
sources of contamination.
Water Conservation is becoming
more and more important as populations increase and source water quality
deteriorates. Here are some ways to help conserve water (and save some money) .
Contaminants that may be present in source water include:
Microbial contaminants – such as viruses and bacteria, which may
com from sewage treatment plants, septic systems, agricultural livestock
operations and wildlife.
Inorganic contaminants – such as salts and metals, which can be naturally occurring or
result from urban storm water runoff, industrial or domestic wastewater
discharges, oil and gas production, mining, or farming
Pesticides and herbicides – which may come from a variety of
sources such as agriculture and residential uses.
Radioactive contaminants – which are naturally occurring
Organic chemical contaminants – including synthetic and volatile organic chemicals, which are
by-products of industrial processes and petroleum production, and can also come
from gas stations, urban storm water runoff, and septic systems

Jay Utilities
Board
Wayne Dunham - Chairman
Bill Stuart - Vice Chairman
Sally Baker -
Member
Les Newkirk - Member