Technical Assistance Center for |
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***Back to the Mission Statement Page*** Technical Assistance Center Progress Reports:
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| SAMPLING LOCALITY | DATE SAMPLED | SPECIFIC LOCALITY | HABITATS SAMPLED |
SAMPLES SORTED |
SAMPLES ANALYZED |
| Auburn | 26 Feb. 2000 | Small stream immediately below "Blue Hole Spring" (= water intake) |
Riffle Depositional |
Yes | No |
| Auburn | 15 Feb. 2000 | same as above | Riffle Depositional |
No | No |
| Guthrie | 26 Feb. 2000 | Small stream immediately below artificial impoundment (= water intake) |
Riffle Depositional Wood |
Yes | No |
| Guthrie | 15 June 2000 | same as above | Riffle Depositional Wood |
No | No |
| Cadiz | 05 Mar. 2000 | Small stream immediately Below concrete cistern (= water intake) |
Riffle Depositional Wood |
Yes | No |
| Cadiz | 15 June 2000 | unable to sample same as above |
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| Marion | 05 Mar. 2000 | Outlet of upper lake (= Lake George) |
Riffle | Yes | No |
| Marion | 15 June 2000 | unable to sample same as above but stream reduced to standing pools only |
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| Caneyville | 06 April 2000 | Bennett Branch of Caney Creek, main inlet to Caneyville Reservoir, immediately upstream of Caneyville Reservoir | Riffle Depositional |
Yes | No |
| Caneyville | 14 June 2000 | same as above; but stream reduced to standing pools only | Depositional | No | No |
Anticipated Activities of Macroinvertebrate Study:
By the end of the fourth quarter of Fiscal Year 1999-2000, I anticipate that macroinvertebrates from all sites will be identified. Approximately 60% of all samples have been sorted, but I have not yet initiated identification. All identification will commence and I anticipate will be completed by the end of the second fiscal year. In addition, habitat analyses need to be completed for all sites. A preliminary site characterization, which describes both habitat structure and macroinvertebrate community structure, will be available. Prior to any anticipated remediation event or BMP, the macroinvertebrate plus habitat assessment will serve as baseline data.
Trihalomethane Project (Dr. Jeffrey Jack, University of Louisville)
The work performed during this period included the following items:
We have received THM data from our second multi-watershed survey in the Ohio River and its major tributaries in Kentucky and Indiana, all of which serve as drinking water supplies. See preliminary data in Figures 1-3. These preliminary values are shown to indicate the delineation of these watersheds that our efforts are focused upon. The Environmental Analysis Laboratory at the University of Louisville is analyzing water quality parameters. Once these are assembled, we can begin the correlational analysis. This will be reported in our next quarterly report.
We have continued monthly sampling protocol at one reservoir in the Salt River watershed, Taylorsville Lake. We sampled the lake at its inflow and outflow and also at two depths, epilimnetic and hypolimnetic, in the lake proper. With the initiation of stratification, we have added another inlet (Beech Creek) to the sampling program to better assess the condition of the water entering Taylorsville reservoir.
We have begun the first mesocosm experiment assessing the relationship of THM production to algal production. This experiment is using the Ohio River Experimental Station mesocosms to conduct a controlled analysis of the impacts of algal production on THM formation potential. This experiment will end on July 7. Preliminary data will be available for the next quarterly report.
We have begun planning for a low pool river survey to be conducted in late July/early August. This survey will sample the major tributaries as before during a period in the rivers (low pool) when THM formation potential may be at a peak.
Other Task 3 Activities
During this past quarter, communications were made for the project to begin a focus on Marion, Kentucky and its atrazine problem. We are anticipating not only to continue our cooperation with the Kentucky Department of Agriculture, Division of Pesticides, Kentucky Division of Water, the Kentucky Rural Water Association, and the USGS, but also to contact Novartis (atrazine manufacturers) for possible additional support to study the noncompliance situation at Marion.
Also during the past quarter, we recognized the need for addressing problems with biological contaminants. With WKU matching funds, we purchased a fluorescent microscope for the Ogden Environmental Water Quality Lab at WKU that is capable of analyzing Giardia, Cryptosporidium, and similar microbial contaminants in supply waters.
B. Difficulties encountered
The Best Management Practices Study had no significant complications during the third quarter. Monthly sampling crews have encountered only inconsequential difficulties during sampling events.
No major difficulties have been encountered this quarter in the THM study. Samples have been shipped to WKU with no problems. We have received our budget distribution for the next fiscal year, and have adjusted our projected activities for the TACWQ accordingly.
C. Preliminary Data Results
Best Management Practices Study
Recognition of pesticides at several study sites (particularly Marion) has led the BMP group to continue analyzing for pesticides metribuzin, trifluralin, atrazine, and simazine. Raw pesticides data collected from the field sites are displayed in Appendix C-1. Water-quality sampling data occurring on a 28-day cycle are presented in Appendix C-2.
These data show the synoptic variation associated with water quality but are not specifically tied to wet or dry characterization data. The next quarterly report will provide detailed analysis of all synoptic data and compare and contrast it with wet characterization and dry characterization data.
Within the macroinvertebrate study, there are no water quality data to report in either habitat analyses or macroinvertebrate assessment. As indicated previously, macroinvertebrate samples from five sites over two sampling periods have been obtained and are in the process of being assessed. Data will be presented in the fourth quarter report.
Trihalomethane Study
Preliminary and patterns are presented and discussed in Figures 1-3, following.

Figure 1. Data and graphs from the two river surveys we have conducted (survey # 3 is scheduled for next month). In both the low and high pools of the Ohio River and major tributaries we have been seeing a similar pattern of relative THM values, although total THMs have differed. The Wabash River is a major source of THMs for the Ohio River watershed. This is a largely agricultural watershed with high levels of chlorophyll a, nutrients etc. in its flow. The largest tributaries, the Cumberland and Tennessee Rivers, do not contribute much THM to the Ohio mainstem; perhaps because of the large reservoirs they both have near their confluence with the Ohio (Lakes Barkley and Kentucky). Our preliminary data indicate that the Ohio River is acting as a sink for THMs. This may be due to dilution, in-river processing or both. We are designing mesocosm experiments to try to separate these impacts and assess their importance.

Figure 2. This is part of the dataset we have generated from Taylorsville Reservoir assessing the relation of THM formation with organic constituent concentrations. One previous study found a significant correlation between THM formation and concentration of dissolved organic carbon (DOC). For the first 6 months of our study, we have found a correlation as well but its explanatory power is very low (R2=0.04). We are now beginning to look at more powerful statistical techniques (etc. multiple regression) to relate multiple factors to THM formation. It is likely that THM formation is a complex phenomenon in this lake.

Figure 3. This is another aspect of our Taylorsville Reservoir sampling program. Taylorsville Reservoir seems to be a source of THM for three months for which we have data analyzed, particularly in late winter/early spring. This is in contrast to the Ohio River, which seems to be a sink for THM (see above). This may be the result of the release of nutrients and increase in dissolved organics during turnover in this lake.
II. Discussion of Expenditures
Task 3 expenditures are on schedule. The combined materials, analytical, and personnel cost for the first three quarters has expended and encumbered 74.7% of the $135,355.00 budget. $60,638.03 (44.8%) of this amount has been spent for the Trihalomethanes study emphasis under Dr. Jeffrey Jack at the University of Louisville.
Cost-matching from Western Kentucky University comprises an additional $43,064 in Task 3 project funds. $19,902 (46.2%) of these funds has been expended during the first three quarters of this project year. These funds have been earmarked by the university for laboratory analysis, materials, supplies, equipment, and travel. The larger percentage budget remaining in the cost-matching account reflects lessened analytical billing as a result of the major drought which continued into the project's first quarter. As parameters of concern have been identified from the BMP water sampling program, we have noticed particular problems with pesticide contamination. Over the project's second and third quarter, we have been using the funds to continue characterizing the water supplies' pesticide loads. We plan to continue the pesticide characterization during the fourth quarter.
Combined Year 2 expenditures through the third quarter for all accounts used by Task 3 (including those funded by EPA and cost-sharing by WKU) are $120,989 of $178,419 (or 67.8%). There are no discrepancies to report.
EPA expenditures for this task from 04/01/99 to 06/30/00 were $1,902 from the year 1 budget and $36,715 from the year 2 budget. The year-to-date Task 3 expenditures have been $55,895 out of a second year EPA budget of $135,355. An additional $396 remains available to Task 3 from its year 1 EPA budget.
Trihalomethane Study Expenditures ($60,638.03 subcontract):
Compared to our milestones we are one month behind schedule because of the loss of the December 1999 data. We have expended roughly 59% of our budget for the year and we have a number of outstanding bills for analysis we will need to pay next quarter. We should be able to finish the first year of this project on budget. There are no discrepancies to report
III. Changes in Key Personnel
THM Study Dale McGaha has joined the project as a graduate student researcher. Mr. McGaha will be focusing his efforts on the role microbial communities play in THM formation in “raw” waters.
There are no other key personnel changes to report in Task 3.
It is the responsibility of Task 4, Database Management and Information Tools, to provide appropriate methods and structures for reporting data and metadata to meet the needs of: (1) facilitating efficient and convenient reporting of information by all other Tasks, (2) appropriate capture and storage of data and metadata by the Database Management System, and (3) accessible retrieval of information and materials by end users along with ancillary information required for interpretation. The Information Tools function of our Task works to put technology, information, and the tools to create information capacity and capability directly into the hands of water providers, and to make that technology and information as accessible as possible.
A. Work progress.
Efforts by Task 4 this quarter continued to focus in five areas: (1) ongoing website development as a tool for providing information to water systems; (2) development of software and information tools for the direct use of water providers themselves; (3) expanding our information services to those states in EPA Region 4 beyond Kentucky; (4) ongoing construction and maintenance of the project database; and (5) reconstruction and refurbishing of donated, retired computers for use by water systems in need.
1) Ongoing website development and communication. We have made a great deal of progress in the renovation of our website in order to simplify navigation and make every section of the site more accessible. The address of the new site, nearing completion, will be http://water.wku.edu. This reorganization is essential in order to efficiently deliver the rapidly growing sources of new information, software, maps, tools, documents, and links that we are developing and collecting.
2) Development of software and information tools for direct use. In-house development of a piece of software, MOR Advisor, to facilitate the completion and filing of Monthly Operating Reports by small water systems, has been completed, tested, debugged, finalized, and was made available for free download from our website during the past quarter. It can be found at URL http://waterquality.bio.wku.edu/MOR/. We plan to gather information from water systems that are trying out this software to get feedback on its efficacy. The program MOR Advisor was constructed by Mr. Seth Johnson, a WKU student, in the language Java to allow for both lean programming and a good graphical user interface. Further, the Java runtime utility required by the program is available for free, just as our software itself is. We will therefore be able to efficiently provide a completely free package that does not require either pre-existing software or a particular operating system. Much additional effort has been expended to make the program function well even on machines with limited computing power. The program has also been optimized to run under both Windows and Linux operating environments.
3) Data gathering and information services to Kentucky and other states. It is part of our mission in this second year of EPA funding to begin expanding our technical assistance services to the rest of the southeastern U.S. A primary goal of the mapping effort presented here is to identify large-scale patterns in water quality problems for the southeastern U.S. so that the solutions to these problems may be efficiently targeted.
We present here a detailed summary of the status of Kentucky's public water and sewer systems showing the counties and number of people lacking these essential services (Figures 1-2). These maps are based on information recently made available by the Kentucky Water Resource Development Commission. In this report we also present a new series of information maps of patterns of water quality problems across the southeastern US, including all of EPA Region 4, plus Virginia and West Virginia. These maps are included at the end of this section (Figures 3-13). A description of the patterns observed so far in these maps is presented under Preliminary Data Results.
4) Development of project database. Microsoft SQL Server is being used to house and query the databases we have begun to accumulate. Metadata is being constructed for the GIS maps we are producing. We have made additional progress toward a final definition of the project's database structure, but are still awaiting the receipt of critical information from Task 3 in order to complete the structure of a database that will house the data they are collecting. Selected data from the EPA SDWIS database have been acquired and queried in conjunction with our efforts to clarify and resolve patterns of water quality problems experienced by small water systems.
5) Rehabilitation of retired computers for use by water systems. We originally proposed to look into the possibility of renovating computers for water systems this year. From a collection of 25 available machines, we have completed the preparation and refurbishing of nine old computers donated for long-term loan to water systems in need of computing power. This effort is finally coming to completion after a very long series of encountering technical problems and developing solutions to them. All students involved in this work are to be commended for their effort and persistence. All computers and associated equipment (monitors, mice, keyboards, modems) have been submitted to a final check and cleaning. We have also written a detailed Operator's Manual to accompany these machines (Appendix D-1). We will deliver the machines to KRWA for distribution by early July 2000. A Press Release has been scheduled for that date as well (Appendix D-2). Feedback request forms were included with the Operator's Manual to help evaluate needs and utilities for donated computers the TACWQ might distribute in future.
B. Difficulties encountered.
No insurmountable difficulties have been encountered.
C. Preliminary data results.
A visual description of Kentucky residents lacking basic public water service and sewer service is presented in Figures 4-5. The raw data behind this map, aggregated by the Kentucky Water Resources Development Commission, shows that a total of 15% of Kentucky residents (almost 0.6 million people) are without public water service of any type, while 44% of Kentucky residents (over 1.7 million people) are without public sewer service of any type. A plan to provide public water service to remaining residents without providing public sewer service as well has obvious potential for creating new water quality problems, especially in the underserved Appalachian region of Kentucky with its current known problems with straight pipes.
Records of MCL violations during 1998 have been mapped on a county by county basis for each state in the southeastern U.S. (EPA Region 4, plus West Virginia as we expand our information services). The information included in the maps in Figures 6-19 allows one to evaluate patterns and assert priorities based on several parameters: density of water systems with problems, number of people affected, and percent of population affected.
For the whole southeastern U.S., the number of people affected by MCL violations in each county is shown as 3-D extrusions, using two different points of view, in Figures 6 and 7. Areas that stand out in both maps as having problems affecting a large number of people include Miami, central Florida, eastern Tennessee, northern Alabama, the Appalachian region, and coastal areas along parts of the Atlantic Bight and the Gulf coast.
In Figures 8-19, two conventions, dots and shading, are used to simultaneously represent number of water systems in a county with a given violation (dots) and percent of county population affected (shading). Each dot represents one water system within a county with a given violation, while colors are used to distinguish different types of MCL violations. Shading is used to represent affected population percent in each county by quartiles.
Using this scheme, a view of the entire southeastern U.S. is presented in Figure 8. This map suggests that, overwhelmingly, the greatest drinking water quality problems experienced in this region of the U.S. are in the form of fecal coliform violations. Taken with the previous figures, several areas stand out as having problems in a few water systems that serve large populations, including the Miami region of Florida, the northeastern tip of Tennessee, north-central Alabama, and northwestern Georgia. Several regions stand out as having problems with many, many water systems; since those counties have such a large number of water systems, most of these are likely to be small water systems. These areas include the central, northeastern, and Miami areas of Florida; western Tennessee; selected coastal segments of Georgia, South Carolina, and North Carolina; central South Carolina; and Appalachian regions of northeast Georgia, eastern Tennessee, western and central North Carolina, and southern West Virginia. Data for other eastern states will help complete this picture.
Figures 9-11 show how water quality violations have decreased in Kentucky from 1996-1998, and also reveal regions of the state that have had consistent problems over time. These regions may have chronic source water problems, or may have ongoing problems with particular water systems. In Figures 12-19, MCL violations by state can be seen more clearly. In addition to specific regions of states with numerous fecal coliform problems, the number of fluoride violations in coastal South Carolina and the number of nitrate problems in far eastern West Virginia and parts of North Carolina are very surprising, and bear further investigation.
Maps such as these can help immensely in focusing projects for greater effectiveness, such as determining areas most suitable for regionalization, or targeting areas where a Small Systems Circuit Rider program has the greatest potential for effecting improved SDWA compliance.
We look forward to developing a fuller picture by creating maps for more states, and by examining these patterns over time. We are also in the process of converting these maps into clickable image maps that can be used over the internet to link to queries of the EPA SDWIS (Safe Drinking Water Information System) database for instant detailed information. It is hoped that this information will help define the problems and issues at hand more clearly than previously possible.
D. Anticipated activities.
Continuing website renovation will be a major effort next quarter as we strive to maximize its accessibility and utility for all users. We look forward to further publicizing the availability of the free MOR Advisor software for distribution during the next quarter, and will begin to gather feedback on its use and also begin to develop versions for use in other states. Work will continue in our data gathering and information harvesting, with GIS as a primary mode of analysis and display of information. Ongoing development and maintenance of the structure and content of the project database will also continue. In the next quarter we will distribute rehabilitated computers for long-term loan to the small rural water systems that have applied for them. We shall also continue to respond to requests by water systems and the public for data and information on an ongoing basis.
II. Discussion of Expenditures
Expenditures for this task from 04/01/99 to 06/30/00 were $20,311. The year-to-date Task 1 expenditures have been $53,394 out of a second year budget of $99,401.
III. Key Personnel Changes
There have been no changes in key personnel within Task 4 during this quarter. Dr. Ouida Meier continues to direct the efforts of Task 4. We are very fortunate in having a team of four bright, talented undergraduate students who are currently assisting with the work in Task 4 very creatively and capably: Mr. Seth M. Johnson, Computer Programmer, who has developed the MOR Advisor software and User's Guide, contributed significantly to the preparation and final check of the loaner computers, and harvested data from the EPA SDWIS database; Mr. Shane Fryer, GIS Specialist, who plotted the maps that appear in this report and developed new modes of information layout; Ms. Kim Gaines, Research Assistant, who is tracking down information on source water quality to extend our analyses; and Mr. Jake Lyon, Linux Specialist, who was responsible for a final check of the loaner computers, authored the loaner computer Operator's Manual, and is now assisting with website renovation. The Center is very grateful for their dedicated and skillful efforts.
I. Work Status:
The objectives of task 5 have developed into the following four main headings.
A. Work Progress
Pilot Studies. During this third quarter, no pilots were visited.
FTO Certification. Due to funding constraints and lack of pilot studies, FTO certification has had no activity in this quarter.
Sanitary Survey Self Assessment Field Guide. The Sanitary Survey Self Assessment Field Guide and Form for Ground Water has been reviewed by EPA and the Kentucky Division of Water and is now being edited by the Center. The Sanitary Survey Self-Assessment Field Guide and Form for Surface Water is approximately 60% complete and will be completed during the fourth quarter of this year.
Western Spring Conference. The first annual Western Spring Conference was held at the Center on May 24th thru May 26th, 2000. This conference was a joint effort by this Center, University of Louisville Financial Center, Kentucky Rural Water Association, Kentucky-Tennessee Section American Water Association, Kentucky Division of Water and the Tennessee Division of Water Quality. The first day was given to the state regulatory agencies of Kentucky and Tennessee to present the SDWA and the Amendments of 86 and 96. The second day was devoted to innovative technologies, the University of Louisville rate presentation, and other treatment techniques. On the third day, Mark Mazzola as a representative of US EPA presented upcoming rules and regulations that operators must understand and implement, and KRWA described their Management Institute being developed over the next three years.
B. Difficulties Encountered
There have been no difficulties encountered.
C. Preliminary Data Results
Pilot Studies – The final report of the Spatial Data Integration pilot at the Lake Village Water Association is attached as an addendum to this Task section (Attachment #1).
Western Spring Conference – There were 40 registered water operators and managers in attendance. The evaluation sheets returned indicated that the conference was a great success.
D. Anticipated Activities
The Sanitary Survey Field Guide and Form for Ground Water and Surface Water should be complete by the end of the fourth quarter. Western Kentucky Technical Assistance Center plans to hold the Spring Conference each year to keep small water system operators and managers up to date with new technology and drinking water regulations (these two ventures will be pursued utilizing WKU matching funds).
II. Discussion of Expenditures:
Expenditures for this task from 04/01/99 to 06/30/00 were $1,284. The year-to-date Task 1 expenditures have been $5,742 out of a second year budget of $9,081.
III. Key Personnel Changes:
There were no personnel changes during this period.
Task 5, Innovative Technologies: Attachment #1
INNOVATIVE TECHNOLOGY DEMONSTRATION PROJECT
LAKE VILLAGE WATER ASSOCIATION, BURGIN, KENTUCKY
JULY, 1999 - JUNE, 2000
FINAL REPORT
In June, 1999 the Technical Assistance Center for Water Quality (TACWQ) at Western Kentucky University, the Kentucky Rural Water Association (KRWA), and Spatial Data Integrations, Inc. (SDI) announced the establishment of an Innovative Technology Demonstration Project to illustrate the advantages of using a GIS (Geographic Information System) for facilities management at small water utilities. Lake Village Water Association (LVWA) of Burgin, Kentucky was chosen as the site for the project which ran from July 1999 through June 2000. LVWA , which has 1750 customers and more than 83 miles of mains, is headed by Mike Royalty who was the principal tester for the project.
In July, 1999 SDI provided LVWA with base maps for its service area. These maps included seamless digital topographic maps prepared from USGS DRGs (Digital Raster Graphics), digital aerial photography produced from USGS DOQQs (Digital Orthophotograhic Quarter Quadrangles) and an elevation grid produced from USGS DEMs (Digital Elevation Models). SDI also provided LVWA with WaterWorks/FM™ -- a GIS system developed by SDI, to enable small and medium-sized utilities to digitize and display mains, valves, hydrants, service lines, meters and other facilities information on a digital map. Once this system information is "drawn" and keyed into the program, the software enables the utility to analyze its system data to assist with facilities management, customer service, long-range planning and other operational issues.

In August, 1999 Mike Royalty began "drawing" his mains into the software using the aerial photography as his point of reference. As mains were added, the lines were automatically snapped together by the software to ensure connectivity. Then point features were added including fittings, valves, and hydrants among others. Service lines were added to connect meters to the mains. As each service line was drawn on the map, the software automatically snapped the service to the main and added a saddle at the main and a meter at the other end of the line. As Mr. Royalty had free moments, he worked on entering more data into the system. By early 2000 he was ready to begin adding information into the system to describe the attributes of the features that he had drawn on the map. By the end of June, 2000 LVWA has completed digitizing all of its mains, meters, valves, hydrants, and other features and was well into the task of coding the information about these features.

Throughout the year, Mike Royalty has freely shared his time and information with other utility managers who have been interested in GIS. He has participated in a number of meetings in which he has discussed the demonstration project and how GIS is being utilized in his system. In June 2000 he was on the program at the KYGIS conference in Bowling Green to talk about his experience with the demonstration project. He is now a strong advocate for utility operators to use GIS in the management of their operations. Among the anecdotes which Mr. Royalty shared at the conference were these:
A resident showed up at board meeting and wanted to know what it would cost to get water hooked up to his property. Using the GIS software, Mike was able to locate the resident's property on the map, use a measuring tool in the software to calculate the distance from the closest main to the man's property, and provide an estimate on the spot. Prior to having the GIS software, Mike would have had to go out to the property, use a wheel to calculate the distance, and then prepare a quote for the resident--a process that normally took at least a week.
Using a Leak Tracker component that comes with WaterWorks/FM, Mike was able to determine that several leaks had occurred along the same 10-mile section of pipe and was able to recommend to his board that the whole section be replaced to avoid further service interruptions and water losses.
LVWA is in the process of completing the entry of existing features into its GIS system. A key advantage that LVWA has found in using GIS is that its system map need never be out of date. As new water mains and service lines are put in the ground they can be added to the digital mapping system. As repairs take place on older mains in the system where size and material were unknown, this data can be recorded in the GIS. Having all of the system information in one place is a real convenience for LVWA.

These Appendixies and figures are availbable in hard copy format, if you need any of these please contact us.
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