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Page i Page ii Table of Contents Page iii Page iv Abstract Page 1 Introduction Page 2 Page 3 Page 4 Page 5 Sources of water Page 6 Page 7 Page 5 Page 8 Chemical analyses Page 9 Page 10 Page 8 Page 11 Page 12 Page 13 Page 14 Page 15 Page 16 Purpose, scope, and definition of terms Page 17 Page 18 Page 19 Northwestern Florida Page 20 Page 21 Page 22 Page 23 Page 24 Page 25 Page 26 Page 27 Page 28 Page 29 Page 30 Page 31 Page 32 Page 33 Page 34 Page 35 Page 36 Page 37 Page 38 Page 39 Page 40 Page 41 Page 42 Page 43 Northern, Northeastern, and North-Central Florida Page 44 Page 45 Page 46 Page 47 Page 48 Page 49 Page 50 Page 51 Page 52 Page 53 Page 54 Page 55 Page 56 Page 57 Page 58 Page 59 Page 60 Page 61 Page 62 Page 63 Page 64 Page 65 Page 66 Page 67 Page 68 Page 69 Page 70 Page 71 Page 72 Page 73 Central Florida Page 74 Page 75 Page 76 Page 77 Page 78 Page 79 Page 80 Page 81 Page 82 Page 83 Page 84 Page 85 Page 86 Page 87 Page 88 Page 89 Page 90 Page 91 Page 92 Page 93 Page 94 Page 95 Page 96 Page 97 Page 98 Page 99 Page 100 Page 101 Page 102 Page 103 Page 104 Page 105 Page 106 Page 107 Page 108 Page 109 Page 110 Page 111 Page 112 Page 113 Page 114 Page 115 Page 116 Page 117 Page 118 Page 119 Page 120 Page 121 Page 122 Page 123 Page 124 Page 125 Page 126 Page 127 Page 128 Page 129 Page 130 Page 131 Page 132 Page 133 Page 134 Southern and Southeastern coastal Florida Page 135 Page 136 Page 137 Page 138 Page 139 Page 140 Page 141 Page 142 Page 143 Page 144 Page 145 Page 146 Page 147 Page 148 Page 149 Page 150 Page 151 Page 152 Page 153 Page 154 Page 155 Page 156 Page 157 Page 158 Page 159 Page 160 Page 161 Page 162 Page 163 Page 164 Page 165 Page 166 Page 167 Page 168 Page 169 Page 170 Page 171 Page 172 Page 173 Page 174 Page 175 Page 176 Page 177 Page 178 Page 179 Page 180 Page 181 Page 182 Page 183 Page 184 Page 185 Page 186 Page 187 Page 188 Page 189 Page 190 Page 191 Page 192 Page 193 Page 194 Page 195 Page 196 Page 197 Page 198 Page 199 Page 200 Page 201 Page 202 Page 203 Page 204 Alphabetical list of cities Page 205 Page 206 Page 207 Page 208 References Page 209 Page 210 Page 211 Page 212 Page 213 Copyright Main |
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STATE OF FLORIDA DEPARTMENT OF NATURAL RESOURCES Randolph Hodges, Executive Director DIVISION OF INTERIOR RESOURCES R. O. Vernon, Director BUREAU OF GEOLOGY C. W. Hendry, Jr.,Chief Information Circular No. 81 PUBLIC WATER SUPPLIES OF SELECTED MUNICIPALITIES IN FLORIDA, 1970 By Henry G. Healy Prepared by the U. S. GEOLOGICAL SURVEY in cooperation with BUREAU OF GEOLOGY DIVISION OF INTERIOR RESOURCES FLORIDA DEPARTMENT OF NATURAL RESOURCES, CENTRAL AND SOUTHERN FLORIDA FLOOD CONTROL DISTRICT, SOUTHWEST FLORIDA WATER MANAGEMENT DISTRICT and other state, local, and federal agencies TALLAHASSEE 1972 Completed manuscript received August 25, 1972 Printed by the Florida Department of Natural Resources Division of Interior Resources Bureau of Geology Tallahassee ii CONTENTS Page Abstract ......................................... 1 Introduction .................................... 2 Sources of water ................... ............... 5 Chemical analyses ................... .............. 8 Purpose and scope ................................. 17 Definition of terms ............................... 17 Acknowledgments .... ......................... 20 Northwestern Florida ............... .............. 20 Northern, northeastern, and north-central Florida ................ 44 Central Florida ................. .................74 Southern and southeastern Florida . . . ..... ..... ..135 Alphabetical list of cities ............................ 205 References .................. ..................209 ILLUSTRATIONS Figure 1 Population of Florida, 1900-70, and total yearly water use (pumpage) of selected municipalities in Florida, 1956, 1965, and 1970 . . 3 2 Sources of water supply for municipal use . . . . 6 3 Municipalities in northwestern Florida for which water-use data are given 21 4 Total yearly pumpage, Panama City . . . . ... 35 5 Distribution systems of Bay County Water System, Panama City area .. 36 6 Total yearly pumpage, city of Pensacola . . . ... 38 7 Areas supplied water by the city of Pensacola and the Peoples Water Company, Warrington ................................39 8 Distribution system of St. Joe Paper Company, Port St. Joe ........ 41 9 Municipalities in northern, northeastern, and north-central Florida for which water-use data are given ...... ..... ...... ........45 10 Areas supplied water by the city of Jacksonville . . ... 54 11 Total yearly pumpage, city of Jacksonville . . . .... 55 12 Areas supplied water by the city of St. Augustine . . ... 69 13 Total yearly pumpage, city of Tallahassee . . . ..... 72 14 Municipalities in central Florida for which water-use data are given . 75 15 Total yearly pumpage, city of Cocoa . . . .. .. 84 16 Total yearly pumpage, Dade City ............. . .86 17 Total yearly pumpage, city of Lakeland ................. ..98 18 Areas supplied water by the city of Melbourne . . ... .105 19 Total yearly pumpage, city of Orlando . . . ... .113 20 Total yearly pumpage, city of Tampa . . . .... ..124 21 Areas supplied water by the city of Vero Beach . . . .128 22 Total yearly pumpage, city of Winter Park . . . ... ..134 23 Municipalities in southern and southeastern coastal Florida for which water-use data are given ................................136 24 Areas supplied water by individual and composite water systems, Broward County ................. ............... 155 25 Well fields, treatment plants, and service areas of public- and private water-supply systems in the Ft. Myers.area . . . ... .157 26 Municipalities served by the City of Miami water-supply system . .173 27 Total yearly pumpage, city of Miami . . . ... ..174 28 Total yearly pumpage, city of Stuart ................. ..199 TABLES Table 1 Summary of sources of public supply for 138 Florida municipalities, 1970 7 2 Summary of surface-water sources and Florida municipalities supplied, 1970 9 3 Pumpage in 1970 by 20 Florida municipalities ...... . 10 4 Major chemical constituents in water-their sources, concentrations, and effects upon usability of water for public supply in Florida, 1970 ........ 11 PUBLIC WATER SUPPLIES OF SELECTED MUNICIPALITIES IN FLORIDA, 1970 By Henry G. Healy ABSTRACT Water used in 1970 by the 138 municipalities in this report, 726 million gallons per day, represents 83 percent of the total public supply of the State of Florida and serves 64 percent of the State's population. Of the 138 municipalities, 119 use ground water and 19 use surface water, either wholly or partly. The ground-water supply constitutes 87 percent, 635 million gallons per day, of the total demand of the 138 municipalities and surface water, 13 percent, or 91 million gallons per day. The 20 largest cities in the State, with an aggregate population of 2.93 million, 43 percent of the State's population, use 519 million gallons per day, 59 percent of the State's total water supply. The principal sources of ground water used by tile 138 cities and the amounts, in million gallons per day, are: the Biscayne aquifer, 305; the Floridan aquifer, 277; the sand-and-gravel aquifer, 21; and the shallow sand aquifer, 20. Other, minor, aquifers yielded 10 million gallons per day. Most of the surface-water supply, 55 million gallons per day, was diverted from rivers. Lakes supplied 31 and a reservoir 4 million gallons per day. An infiltration gallery and desalinization plant together supplied 3 million gallons per day. Of the rivers, Hillsborough River supplied the most, 45 mgd to Tampa. The Myakka-Hatchee River, the least, 0.25 mgd to North Port Charlotte. The areas where rapid growth of population and economic activity will have the greatest impact on water-resources are the Sarasota-Naples area, Tampa-St. Petersburg area, southeastern coastal area, Orlando area, Jacksonville-Fernandina area, Pensacola area, and the Tallahassee area. In most of these, water for municipal supplies is currently adequate. Per capital use of water in the 138 municipalities ranged from 40 to 390 gallons per day and averaged 167. Of the 162 chemical analyses listed in the report, 148 represent water quality during 1967-72 and 14 before 1967. The analyses represent both raw and treated water, virtually all from ground-water sources. Most of the analyses were made by the Geological Survey. Ground-water supplies are typically hard to very hard except in extreme northwestern Florida, where water from the sand-and-gravel aquifer is very soft. BUREAU OF GEOLOGY INTRODUCTION This report summarizes municipal use of water in 138 selected municipalities in Florida as of December 1970 and includes the following: 1) Tabulation of data on water-use for each listed municipality; 2) tabulation of chemical analyses of water for each listed municipality; and 3) graphs of pumpage, included when available. Also included are selected recent references relating to geology, hydrology, and water resources of those areas in which the municipalities are located. Since World War II, particularly during the last decade, the demand for fresh water for municipal use in Florida has increased sharply. This steadily increasing demand directly reflects the rapid population growth in the State. Although supplies have generally been adequate for the increased demand, shortages of fresh water will inevitably occur and may become critical in some areas with possible attendant deterioration in quality of the water. Such deterioration will impose a limit on the amount of water available, and new sources or type of treatment will be required. To lessen the effect of future shortages, the present supplies require careful water management and a knowledge of the amount of water used as well as the amount and character of the water available. Figure 1 shows the rate at which population and water use have increased. The areas where rapid growth of both population and economic activity will have the greatest impact on water resources are: 1) the lower Gulf coastal area, Sarasota to Naples, a rapidly developing vast vacation-retirement complex; 2) the Tampa-St. Petersburg area, whose population increased from 456,000 in 1960 to 557,000 in 1970; 3) the southeastern coastal area in Martin, Palm Beach, Broward, and Dade Counties, extending from Stuart to well below Miami, an area whose population was 1,514,031 in 1960 and 2,264,680 in 1970 (Florida Department of Commerce, 1971, p. 8-13); 4) the Orlando area, where the impact of Disney World is being felt; 5) the industrialized Jacksonville-Fernandina area; 6) the Pensacola area; and 7) the Tallahassee area. At present (1972), water supply in most of the these areas is adequate. However, prolonged dry periods can cause shortages and critical conditions, as in the Dade County area in the spring and early summer of 1971. This report has been divided into four sections: 1) northwestern Florida; 2) northern, northeastern, and north central Florida; 3) central Florida; and 4) southern and southeastern coastal Florida. This presentation parallels that of the biennial ground-water-level report for 1969-70 (Healy, 1972). Data for individual municipalities are presented alphabetically under each section, and an index of cities is included for ready reference to the tabulated water-use data. (See appendix.) INFORMATION CIRCULAR NO. 81 I I I I I I ^ - 0 Population of Florldo O Projected Population Population of Florido,1971 edition, Flo. Dept. Comm. / A Totol Yearly Pumpoge I. Inventory of Public Woter Supplies in Florldo, O 1956, Flo. St. Bd. of Heollh. 2. U.S. Geol. Survey, 1965, Woter Use Ooto. 3.U.S.Geol.Survy, 1970, Woter Use Doto. 0 / 0 I 2. 0 0 i. 0 0 0 0 0 0 I00 1920 1930 1940 1950 1960 1970 1980 1990 Figure 1. Population of Florida, 1900-70 and total yearly water use (pumpage) of selected municipalities in Florida, 1956, 1965, and 1970. 400 300 " z 0 -J 200 z -J w 0 ILO 100 Z 0 too (J 1900 Q ACn , i I I I II I 01 BUREAU OF GEOLOGY Of the cities listed in this report, 10 are in the 8 SMSA (Standard Metropolitan Statistical Areas): Ft. Lauderdale; Hollywood; Jacksonville; Miami; Orlando; Pensacola; Tallahassee; Tampa; St. Petersburg; and West Palm Beach. A SMSA is defined by the Bureau of the Budget as a county or group of counties that contain at least one city of 50,000 inhabitants or more or twin cities with a combined population of at least 50,000 (Schneider, 1968, p. 3). Data from this report, in conjunction with the biennial ground-water-level report for 1969-70. will augment the usefulness of water-level data by allowing the complete portrayal of the effects that water use has upon the hydrology, particularly in those areas in the State where pumpage, primarily from ground-water resources is increasing at a large rate. Included in this report are water-use data, sewage data, and chemical analyses of water. A record of daily sewage discharge is included for all municipalities having treatment plants and where sewage records were available. Whenever appropriate, a short statement on water-related problems or quality of water is included for each municipality. Generally, yearly pumpage and per capital use closely correlate; occasionally, however, the year's pumpage is not proportional either to population or to daily pumpage and seems to be anomalous for the population served. In most of these anomalies, per capital use seems high. The amount of sewage discharged when compared to pumpage for municipal water demand, affords a measure of the consumptive use of water for a particular public-supply system. Generally, daily sewage is somewhat less than daily pumpage, about 75 percent on the average. When this percentage differs significantly, in most cases it differs because of poor records or difficulty in establishing the relation between water pumped and water returned as sewage, or because of varying conditions such as the existence of private wells or use of septic tanks, for example. In many municipalities, water for public supply is also used for industry in differing amounts and the water so used may be returned as effluent other than through the municipal waste-treatment plant. The sewage data also include the location of the sewage discharge. Conspicuous examples of municipalities whose per capital use is unusually high or whose daily discharge of sewage and daily pumpage do not correlate closely include the following: i. Per capital use high: 1. Diversion of municipal supply for agricultural-industrial use; example, Homestead. 2. Estimated or incomplete pumpage record; example, Milton. II. Daily sewage discharge does not coincide with daily pumpage. 1. Large percentage of septic tanks in operation;,example, Vero Beach. INFORMATION CIRCULAR NO. 81 2. Municipal pumpage supplied to industry and industrial effluent not connected to municipal sewerage system; example, Jacksonville. 3. Ground-water seepage entering sewer lines; example, Daytona Beach, Ft. Myers. 4. Other areas supplied by municipal system, and the sewage tabulated is given only for the city supplying water; example, Cocoa, Ft. Lauderdale, Miami. 5. Consumptive use is appreciable. The total population of Florida as of December 1970 was 6,789,443. The total population served by the 138 municipalities given in this report is 4,317,794 or 64 percent of the total population of the State. The population in the municipalities for which data are included in this report represent a large segment of the State's population and include all areas where population is highly concentrated. Per capital use ranges from 40 gpd at Lehigh Acres, Lee County, to 390 gpd at Leesburg, Lake County. Area per capital use for the 138 municipalities included herein is 167 gpd, as compared with 130 gpd based on total Statewide daily municipal water use of 883 mgd and a population of 6,789,443. SOURCES OF WATER Ground water supplies 87 percent and surface water 13 percent of the total water used by the 138 municipalities. On a Statewide basis, ground water supplies 90 percent of municipal water. Ground-water supplies for municipal use are derived mainly from five principal aquifers: The Floridan aquifer in central and north Florida; the Biscayne aquifer in the southeast and lower east coastal area; and the sand-and-gravel aquifer in the extreme northwest part of the State, the shallow sand aquifer in south and east coastal Florida, and the Hawthorn-Tampa and Hawthorn aquifers in southwest Florida (fig. 2). The Floridan aquifer is the principal source of water in north-central, north, south-central, and most of northwest Florida (Klein, 1971). Total pumpage from the Floridan in 1970 by municipalities included herein was 277 mgd (million gallons per day) or 101,277 mgy (million gallons per year), or 44 percent of the total ground water pumped for use by the 138 municipalities (table 1). The Biscayne aquifer, which furnished 48 percent of water for these municipalities, is the chief source of water for most of the cities along the populous lower east coast. The Biscayne, one of the most highly productive aquifers in the world, underlies about 3,500 square miles of Broward, Dade, and Palm Beach Counties. Pumpage from the Biscayne aquifer totaled 305 mgd, or 111,332 mgy in 1970 (table 1). BUREAU OF GEOLOGY SM G E 0 I G I s J ;i: 10 , EXPLANATION SOURCES OF MUNICIPAL WATER SUPPLY-/ o O FLORIDAN AQUIFER 0 BISCAYNE AQUIFER 0D SAND-AND-GRAVEL AQUIFER 0 HAWTHORN-TAMPA AQUIFER ED SHALLOW SAND AQUIFER (Includes Pleistocene sand-ond-shell aquifer, Tamiomi formation, and non-artesian aquifer) Surface water, see table 2. j/ See toble I. Figure 2. Sources of water supply for municipal use. 0 s 40 50 _" INFORMATION CIRCULAR NO. 81 Table l.--Summary of sources of public water supply 1970 Pumpage (million gallons) Source (per year) (per day) for 138 Florida municipalities, Percentage Percentage of of source total use Ground water (aquifers) Biscayne 111,332 305 48.1 42.0 Key Largo limestone 579 2 .2 .2 Floridan 101,277 177 43.7 38.2 Sand-and-gravel 7,496 21 3.2 2.8 Shallow sand 7,384 20 3.2 2.8 Hawthorn and Tampa 2,260 6 1.0 .9 Hawthorn 1,346 4 .6 .5 Total ground water 231,674 635 100.0 87.4 Surface water Rivers 20,212 55 60.3 7.6 Lakes 11,414 31 34.0 43 Reservoirs 1,566 4 4.7 .6 Infiltration gallery 342 1 1.0 .1 Total surface water 33,534 91 100.0 12.6 State total, 1970, all sources: 138 municipalities all municipalities 265,208 322,477 726 883 INFORMATION CIRCULAR NO. 81 2. Municipal pumpage supplied to industry and industrial effluent not connected to municipal sewerage system; example, Jacksonville. 3. Ground-water seepage entering sewer lines; example, Daytona Beach, Ft. Myers. 4. Other areas supplied by municipal system, and the sewage tabulated is given only for the city supplying water; example, Cocoa, Ft. Lauderdale, Miami. 5. Consumptive use is appreciable. The total population of Florida as of December 1970 was 6,789,443. The total population served by the 138 municipalities given in this report is 4,317,794 or 64 percent of the total population of the State. The population in the municipalities for which data are included in this report represent a large segment of the State's population and include all areas where population is highly concentrated. Per capital use ranges from 40 gpd at Lehigh Acres, Lee County, to 390 gpd at Leesburg, Lake County. Area per capital use for the 138 municipalities included herein is 167 gpd, as compared with 130 gpd based on total Statewide daily municipal water use of 883 mgd and a population of 6,789,443. SOURCES OF WATER Ground water supplies 87 percent and surface water 13 percent of the total water used by the 138 municipalities. On a Statewide basis, ground water supplies 90 percent of municipal water. Ground-water supplies for municipal use are derived mainly from five principal aquifers: The Floridan aquifer in central and north Florida; the Biscayne aquifer in the southeast and lower east coastal area; and the sand-and-gravel aquifer in the extreme northwest part of the State, the shallow sand aquifer in south and east coastal Florida, and the Hawthorn-Tampa and Hawthorn aquifers in southwest Florida (fig. 2). The Floridan aquifer is the principal source of water in north-central, north, south-central, and most of northwest Florida (Klein, 1971). Total pumpage from the Floridan in 1970 by municipalities included herein was 277 mgd (million gallons per day) or 101,277 mgy (million gallons per year), or 44 percent of the total ground water pumped for use by the 138 municipalities (table 1). The Biscayne aquifer, which furnished 48 percent of water for these municipalities, is the chief source of water for most of the cities along the populous lower east coast. The Biscayne, one of the most highly productive aquifers in the world, underlies about 3,500 square miles of Broward, Dade, and Palm Beach Counties. Pumpage from the Biscayne aquifer totaled 305 mgd, or 111,332 mgy in 1970 (table 1). BUREAU OF GEOLOGY The sand-and-gravel aquifer in northwest Florida yields large supplies of water to municipalities. This aquifer underlies an area of 1,900 square miles in Escambia and Santa Rosa Counties and most of Okaloosa County. Pumpage in 1970 totaled 21 mgd, or 7,496 mgy (table 1). The shallow sand aquifer supplied 7,384 mgy to municipal use. The Hawthorn, Hawthorn-Tampa aquifers supplied 3,606 mgy. The Key Largo limestone supplied 2 mgd, or 579 mgy of salty water from wells to the Stock Island Desalinization Plant for conversion to fresh water for public supply to the city bf Key West. Surface-water supplies for municipal use are diverted from rivers, lakes, and reservoirs (table 2). St. Augustine is supplied partly by an infiltration gallery. Pumpage of surface water from all sources in 1970 was 91 mgd, or 33,534 mgy. Rivers contribute 55 mgd, or 20,212 mgy of the water used for public supply, lakes 30 mgd, or 11,414 mgy, and the remaining sources (reservoirs and infiltration gallery) 5 mgd or 1,908 mgy (table 1). Fifteen municipalities are supplied wholly from surface-water sources, and fcur are supplied from both surface-and-ground-water sources. Partial surface-water supplies range from 30 percent of the total supply (Ft. Myers) to 92 percent of the total supply (Port Charlotte) (table 2). Table 3 lists 20 municipalities that in 1970 had the highest pumpage for municipal water use in the State. These municipalities pump 189,276 mgy, or 71 percent of the total pumpage for public supply of the municipalities reported, and 59 percent of the public supply of all municipalities in the State. The public supply of the cities listed on table 3 serves 67 percent of the population of the municipalities listed in this report and 43 percent of the total State population. CHEMICAL ANALYSES The most recent analyses available, usually for 1970, for both ground water and surface water are presented in this report. Some analyses made before 1970 are listed when a 1970 analysis is not available. The analyses show chemical quality and physical characteristics of water from aquifers, lakes, streams, and a reservoir. If an analysis earlier than 1970 is available and the source was identified, an analysis was made of water from the same source in 1970. Both analyses are included for comparison. Analyses of chemical constituents are given in milligrams per liter. For the physical constituents, the units are generally indicated as shown on each analyses. Table 4 summarizes the types of chemical and physical analyses and their sources and significance with respect to public water supply. A complete treatment of the occurrence, interpretation, and distribution of chemical constituents in water is given in Water Supply Paper 1473 (Hem, 1970). INFORMATION CIRCULAR NO. 81 Table 2.-Summary of surface water sources and Florida municipalities supplied, 1970. 1 Source Deer Point Reservoir Chipola River Quincy Creek Hillsborough River Lake Washington Manatee River Braden River Lake Sirena Shell Creek Lake Okeechobee 11. Caloosahatchee River 12. Lake Mangonia and Clear Lake 13. Myakka-Hatchee River 14. Fordham Waterway 15. Infiltration gallery Municipality Panama City Port St. Joe Quincy Tampa Melbourne2 Palmetto Bradenton Lake Placid Punta Gorda Belle Glade Clewiston Okeechobee Pahokee Ft. Myers Per Sup 1 1 1 1 1 1 1 1 1 1 1 1 Ft. Myers (suburban) 100 West Palm Beach 3 100 West Palm Beach 100 No. Port Charlotte Port Charlotte St. Augustine 2Numeral refers to figure 2. 3Includes Eau Gallie Includes Palm Beach and South Palm Beach cent Total pumpage plied mgy 00 1,566 00 163 90 430 00 16,265 00 2,818 00 203 00 1,229 00 219 00 365 00 988 .00 728 .00 222 .00 230 30 377 595 6,209 93 492 342 33,534 BUREAU OF GEOLOGY Table 3.-Pumpage in 1970 by 20 Florida Municipality S Miami Tampa Jacksonville Ft. Lauderdale Orlando St. Petersburg North Miami Beach Pensacola West Palm Beach Cocoa Lakeland Pompano Beach Hollywood Tallahassee Gainesville Boca Raton Daytona Beach Winter Park North Miami Melbourne Total sourcee GW SW GW GW GW GW GW GW SW GW GW GW GW GW GW GW GW GW GW SW Pumpage (million gallons) Per year Per day 55,879 16,265 15,522 14,867 11,825 10,205 6,530 6,313 5,430 5,596 5,237 5,116 4,975 4,393 3,975 3,945 3,498 3,454 3,442 S2818 189,285 153 45 43 41 32 28 18 17 15 15 14 14 14 12 11 11 10 9 9 8 519 Municipalities Population Per Capita Use Served (gallons per day) 789,444 174 307,444 116 190,000 132 186,715 218 175,000 185 250,000 130 95,000 188 125,000 140 57,380 259 100,000 153 81,500 175 50,000 280 100,000 136 77,700 155 ,4 70,000 155 35,000 309 56,606 170 53,809 175 55,000 171 63,464 121 2,918,818 BUREAU OF GEOLOGY The sand-and-gravel aquifer in northwest Florida yields large supplies of water to municipalities. This aquifer underlies an area of 1,900 square miles in Escambia and Santa Rosa Counties and most of Okaloosa County. Pumpage in 1970 totaled 21 mgd, or 7,496 mgy (table 1). The shallow sand aquifer supplied 7,384 mgy to municipal use. The Hawthorn, Hawthorn-Tampa aquifers supplied 3,606 mgy. The Key Largo limestone supplied 2 mgd, or 579 mgy of salty water from wells to the Stock Island Desalinization Plant for conversion to fresh water for public supply to the city bf Key West. Surface-water supplies for municipal use are diverted from rivers, lakes, and reservoirs (table 2). St. Augustine is supplied partly by an infiltration gallery. Pumpage of surface water from all sources in 1970 was 91 mgd, or 33,534 mgy. Rivers contribute 55 mgd, or 20,212 mgy of the water used for public supply, lakes 30 mgd, or 11,414 mgy, and the remaining sources (reservoirs and infiltration gallery) 5 mgd or 1,908 mgy (table 1). Fifteen municipalities are supplied wholly from surface-water sources, and fcur are supplied from both surface-and-ground-water sources. Partial surface-water supplies range from 30 percent of the total supply (Ft. Myers) to 92 percent of the total supply (Port Charlotte) (table 2). Table 3 lists 20 municipalities that in 1970 had the highest pumpage for municipal water use in the State. These municipalities pump 189,276 mgy, or 71 percent of the total pumpage for public supply of the municipalities reported, and 59 percent of the public supply of all municipalities in the State. The public supply of the cities listed on table 3 serves 67 percent of the population of the municipalities listed in this report and 43 percent of the total State population. CHEMICAL ANALYSES The most recent analyses available, usually for 1970, for both ground water and surface water are presented in this report. Some analyses made before 1970 are listed when a 1970 analysis is not available. The analyses show chemical quality and physical characteristics of water from aquifers, lakes, streams, and a reservoir. If an analysis earlier than 1970 is available and the source was identified, an analysis was made of water from the same source in 1970. Both analyses are included for comparison. Analyses of chemical constituents are given in milligrams per liter. For the physical constituents, the units are generally indicated as shown on each analyses. Table 4 summarizes the types of chemical and physical analyses and their sources and significance with respect to public water supply. A complete treatment of the occurrence, interpretation, and distribution of chemical constituents in water is given in Water Supply Paper 1473 (Hem, 1970). Table 4.-Major chemical constituents in water--their sources, concentrations, and effects upon usability of water for public supply in Florida, 1970. (Footnotes are at end of table) Chemical constituent Safe 1 Range in chemical org Effect upon usability or physical property standards ,physical properties Sources of water Silica (Si02) -Present in almost all rocks Scale formed in pipes 0.1-48 and soil. Generally dis- and boilers. Effective- solves in concentrations of ness of water softeners 1 to 50 mgl. In alkaline reduced. waters concentration may be as high as 100 mgl. Calcium (Ca) and Ca Mg Present in almost all rocks. Hardness and scale-form- Magnesium (Mg) 0.9-430 .3-100 Particularly abundant in ing properties are char- limestone, dolomitE and acteristic. Soap lather- gypsum. Readily dissolves ing difficult. Mg is an from these rocks,usually in. indicator of contamina- high concentrations. High tion of fresh water by in river water that drains sea water. humid areas. Sodium (Na) and Na K Present in almost all rocks. High concentrations give Potassium (K) 1.8-200 0.2-18 Particularly abundant in salty taste to water. sedimentary rocks,from Low to medium concentra- which Na readily dissolves, tions do not adversely but K more slowly. Concen- affect usefulness of tration of Na much higher water for purposes other than K in natural waters. than steam generation and irrigation. Table 4.--Major chemical constituents in water-their sources, concentrations, and effects of water for public supply in Florida, 1970. (Footnotes are at end of table) upon usability Chemical constituent Safe 1 Range in chemical or2 Effect upon usability or physical property standards physical properties Sources of water Bicarbonate (HCO3) 3-372 Action of carbon dioxide Decmposes under heat in water on carbonate and pressure to form rocks,such as limestone scale and carbon dioxide and dolomite. (corrosive). Causes carbonate water hardness in combination with calcium and magnesium. Chloride (Cl) 0-250 2.6-360 Dissolved from rocks and Imparts salty taste soil. Important sources to water. If present include evaporites, oceans, in large amounts, .d and brines, increases corrosive- ness of water. Fluoride (F) Depends on 0.1-2.20 Present in most igneous Reduces tooth decay. annual averages and sedimentary rocks. Excessive, fluoride of maximum daily causes mottling or air temperature permanent discoloration of teeth. Effect of fluoride depends on concentration, age of individual, susceptibil- ity of individual and quantity of water con- sumed. Table 4.--Major chemical constituents in water--their sources, concentrations, and effects upon usability of water for public supply in Florida, 1970. (Footnotes are at end of table) Chemical constituent Safe 1 Range in chemical or2 Effect upon usability or physical property standards physical properties Sources of water Nitrate (NO3) 0-45 0.1-9.3 Leaching of irrigated soil. Indicates localized Decaying vegetable matter, contamination if con- animal wastes. centtations in water are higher than aver- age. Concentrations 45 mgl can cause dis- ease of infants (meth- emoglobinemia) with sometimes fatal results. Iron (Fe) 0-0.3 0.1-9.3 Dissolved from all rocks and Oxidizes and precipi- Iron and soils. May also g- into states as a reddish- manganese solution from iron .)ipes, brown sediment in pumps, and other iron water exposed to air. implements. High concentrations in water stain enamels, porcelain and restrict water's use in many water-using industries. Hardness as CaCO -- 3-1,860 Present in almost all rocks. Forms scale in boilers, Particularly abundant in pipes, heating coils. limestone, dolomite, and Prevents or retards gypsum. Readily dissolves soap from lathering. from these rocks usually in Hardness scale: soft, high concentrations. Also 60 mgl; moderately may result from high con- hard, 61-120 mgl; hard centrations of metallic ions 121-180 mgl; and very i.e. Cu, K, Na. hard, 180 mgl. Table 4.-Major chemical constituents in water-their sources, concentrations, and effects upon usability of water for public supply in Florida, 1970, (Footnotes are at end of table) Chemical constituent Range in chemical or2 Effect upon usability or physical property standards physical properties Sources of water Dissolved solids 0-500 20-1,320 Mineral content and organic Water with concentra- (residue at 180* C) content of water. Dissolved tions higher than 500 from rocks and soil. mgl is unsuitable for many purposes. Specific conductivity -18-2,200 Depends upon the concentra- Varies with tempera- (micromhos at 25" C) tions and kind of minerals ture, concentration, dissolved from rocks and and degree of ioniza- soils. tion of constituents. May be used to deter- mine the extent to which ground and sur- face water are con- taminated by sea water. Hydrogen ion -- 57-8.6 Carbonate, bicarbonate, Water with low pH hydroxide, phosphate, generally more cor- silicate and borate raise rosive than water with the pH. Acids, acid-gen- high pH. Strongly rating salts and free alkaline water may be carbon dioxide lower the corrosive. Neutral pH. water has a pH of 7.0; acid water pH<7.0, alkaline water pH > 7.0. Safe 1 Table 4.-Major chemical constituents in water--their sources, concentrations, and effects upon usability of water for public supply in Florida, 1970. (Footnotes are at end of table) Chemical constituent or physical property Safe standards Range in chemical or2 physical properties Sources Effect upon usability of water Temperature of water re- flects air temperature and temperature of soils and rock formations through which it moves. Generally, temperature of surface water more closely cor- relates to air temperature than to temperature of ground water. Temperature to a large degree determines the purpose for which water might be used. Temperatures fluctuate seasonally with greater fluctuations occurring in shallow aquifers and streams. Water at moderate depths usually has temperatures that fluctuate through a narrower range than that of water at shallow depths. 1 U. S. Public Health Service, 1962, Drinking water standards, 1962: U. S. Public Health Serv. Pub. 956, 61 p. 2 Ranges based on analyses listed in this report. Temperature (C) A 0i I 0r __ __ BUREAU OF GEOLOGY The objective in including in this report analyses of raw and.treated water used for public supply is to establish a bench mark of chemical and physical data for comparison with future analyses. Such comparison will indicate any changes in the source waters from which the public supply is obtained. The State Board of Health, concerned with the quality of raw water (for epidemiology) and of treated water (for effectiveness of treatment processed), analyzes both raw and treated water. The quality of raw water, of course, reflects conditions in the hydrologic environment. A total of 162 analyses is presented. Of the total, 148 analyses represent water quality during 1967-72; the remaining 14 represent water quality before 1967. Raw water was analyzed in most cases. Analyses of treated water are also included when available. Occasionally, an analysis of water sampled before 1967 is included; some indicate water-quality between the times of analyses. The distribution of analyses used is as follows: U.S. Geological Survey 98; private laboratories 28; Florida State Board of Health 13; Municipal water-treatment plants 21, and the U.S. Navy 2. Generally, the ground water is typically hard to very hard except in extreme northwest Florida, where water from the sand-and-gravel aquifer is very soft, low in bicarbonate and dissolved solids but corrosive (because of dissolved carbon dioxide) to the extent that lime is used to stabilize the water to be used for public supply. Of the water used for public supply from the Floridan aquifer, 71 percent is hard to very hard, 25 percent is moderately hard, and about 1 percent is soft. Water used for public supply from the Biscayne aquifer is a very hard high bicarbonate water, as is water from the Hawthorn, Hawthorn-Tampa, Tamiami, and shallow sand nonartesian aquifers. a Durfor and Becker (1964, p. 27) use the following classification for hardness range: Hardness range (mg/I of CaCO2) Description 060 ................................. Soft. 61-120 .............................. Moderately hard. 121-180 .............................. Hard. More than 180 .......................... Very hard. INFORMATION CIRCULAR NO. 81 PURPOSE AND SCOPE This report is an outgrowth of the 1970 water-use survey made by the U.S. Geological Survey as part of the Statewide cooperative program with the Bureau of Geology, Florida Department of Natural Resources, and as part of programs with the Central and Southern Florida Flood Control District, the Southwest Florida Water Management District, and with other State, local, and federal agencies. Information on water use in Florida in 1970 was collected as part of the national survey of water use and will be published in: 1) U.S. Geological Survey Circular on "Water use in the United States, 1970"; 2) Bureau of Geology, Florida Department of Natural Resources Information Circular, "Public water supplies for selected municipalities in Florida, 1970." This report, which includes water-use information for 1970, represents an updating of water- use information in Florida for 1965 presented in Bureau of Geology, Florida Department of Natural Resources Map Series 36, "Estimated water use in Florida, 1965." The data presented were collected by personnel of the U.S. Geological Survey, May 1970-January 1971. The inventory was implemented by personal contact with the Florida Board of Health, Bureau of-Sanitary Engineering, and with water-plant superintendents, water managers, and local city officials in municipalities throughout the State. In addition to use of ground water for source of supply, criteria for the selection of the 138 individual towns and cities used in the report include: county seats; cities of 5,000 population; and, cities using water for municipal use derived in whole or in part from surface-water sources. DEFINITION OF TERMS Most of the terms that appear in the tables that follow are self-explanatory or are obvious and need no definition. A few of the terms may not be clear, and for these a description is included below. The terms defined are: "Drainage basin," "Water-treatment," and "Type and number of services." Drainage Basin. The State has been divided into 29 major drainage basins (Kenner and others, 1967). The primary numerical designations of the drainage basins are the same as those of the Index of River Basin Maps of the United States issued by the Inter-Agency Committee on Water Resources and also used by the Office of Water Data Coordination for the nationwide system. Basin designations consist of the basin name plus a numeral. The basin code numbers provide a basic system of cataloging and processing the accumulating large volume of hydrologic information for electronic data storage and retrieval. The BUREAU OF GEOLOGY basin designations and code numbers conform, with minor exceptions, to the nationwide system instituted by the Office of Water Data Coordination, U.S. Geological Survey, Washington, D.C. In this report, only major drainage basins are included. The coding, name designation, and drainage areas of 46 major and minor drainage basins in Florida are described and discussed by Kenner, Pride, and Conover (1967). Water Treatment. -- Water- and sewage-treatment processes generally do not differ in principle. The only difference lies in the degree of pollution of the influent water with which the processes must contend and the required quality of the resulting effluent. Generally, water treatment processes are interrelated and are presented in this report either as generalized treatment processes, i.e., primary, secondary, tertiary, or as individual processes, as reported by water- and sewage-treatment plant operators, i.e., sedimentation, stabilization. Because water-treatment personnel of many municipalities have reported sewage treatment as primary, secondary, and tertiary, a brief generalized description of these processes are given. Primary treatment includes plain sedimentation, which is the removal by gravitational settling of suspended particles heavier than water. Settling occurs in basins or tanks. Chemical coagulation and digestion is also part of the primary treatment. Secondary treatment includes filtration by either high- or low-rate trickling filters, sedimentation or settling, activated sludge, and digestion. Tertiary treatment includes the use of oxidation ponds for purification of settled sewage by storage under climatic conditions that favor growth of algae. Water-treatment processes are generally classified into 11 basic mechanical and chemical processes (Fair and Geyer, 1954). The 11 processes and the corresponding treatment, as reported herein, are described as follows: Gas exchange. Gases are precipitated from water or taken into solution by water by exposure of the water to the air or to atmospheres of special gases under various pressures. Treatment: aeration, chlorination, carbonation treatment. Screening. Process by which floating and suspended matter are removed from the water by straining through screens or racks. Generally materials are removed from screens or reduced to smaller particles. Treatment: communition. Sedimentation. Process by which the transporting and scouring powers of water are controlled to the extent that suspended solids in transport are deposited from the water by gravity when the rate of flow is reduced. Treatment: grit chambers, settling, sedimentation. INFORMATION CIRCULAR NO. 81 Flotation. Process by which substances in suspension are brought to the surface by flotation agents, such as fine air bubbles or chemical compounds. Treatment: diffused air, skimming. Chemical coagulation. Process by which dissolved substances are thrown out of solution. Treatment: flocculation, softening. Ion exchange. Process by which ions in water are exchanged for complementary ions of a solid exchange medium (zeolites). Treatment: softening. Physical adsorption and contact. Process by which adsorptive and other physical interfacial forces combine to remove substances from solution concentrating them at the interface occasionally as precipitates. Treatment: filtration, taste, and odor control. Biological flocculation and precipitation. Primarily sewage treatment process by which putrescible substances are partly stabilized by living organisms under aerobid conditions. Stabilization involves the transfer to the interface of the slime of living organisms finely divided and dissolved putrescible matter. Treatment: filtration, activated sludge, contact stabilization, aeration, biofiltration, digestion, septic tanks, oxidation, polishing ponds. Filtration. Process in which suspended matter is transferred from water or sewage to granular material, i.e., sand, coke, coal, etc. by continued action of straining, sedimentation, and interfacial contact. Treatment: filtration, clarification, septic tanks. Disinfection. Process by which living potentially infectious organisms are killed. Treatment: chlorination, algae control, incineration, drying of sludge by air or heat for disposal. Chemical stabilization. Process in which chemicals are added for the purpose of converting objectionable substances into unobjectionable forms without their removal from the water. Treatment: chlorination, pH control, recarbonation, anti-precipitation and corrosion control, softening, stabilization. Abbreviations. Some abbreviations appear throughout the tabular material in citing quanti- ties of water. They are: gpd, gallons per day; mg, million gallons; mgd, million gallons per day; mgy, million gallons per year. BUREAU OF GEOLOGY Type and number of services. The figures shown under type and number of services represent the number of water-service meters in use at the time of the inventory. Type and number of services are reported as "undifferentiated" when the number of service meters used for domestic and commercial water use is not known. ACKNOWLEDGMENTS Grateful acknowledgment is made to Mr. J.B. Miller, Administrator, Water Supply Section, Bureau of Sanitary Engineering, Florida Department of Health and Rehabilitative Services, for his help and cooperation in supplying records on water use and chemical quality, to municipal waterworks officials for supplying and verifying records of water use and other information on their water- and sewage-treatment plants and to the personnel of the U.S. Geological Survey, Water Resources Division, particularly Messrs. J.E. Hull, A. F. Robertson, C.A. Pascale, and the late LJ. Crain, for their assistance and cooperation in participating in the extensive inventory of data from municipalities throughout the State. The report was prepared under the general supervision of C.S. Conover, district chief, Florida District. NORTHWESTERN FLORIDA The northwestern Florida section includes the Florida panhandle, extending from the Apalachicola River westward to the Florida-Alabama boundary (fig. 3). The principal sources of, ground water for municipal supplies are the sand-and-gravel aquifer in Escambia, Santa Rosa, and Okaloosa Counties and the northwest part of Walton County and the Floridan aquifer in the rest of the section. During 1970, 7,496 million gallons was withdrawn for municipal water supply from the sand-and-gravel aquifer, and 3,253 million gallons was withdrawn from the Floridan aquifer. Surface-water supplies for municipal use totalled 1,729 million gallons. The three most populous areas, Fort Walton Beach, Panama City, and Pensacola, used 8,891 million gallons, or 72 percent, of the total amount of water supplied by municipal systems in this section. A L A B A M A JACKSON *MARIANNA LOCATION OF AREA , ,, o MILES Figure 3. Municipalities in northwestern Florida for which water-use data are given. I 0 I zQ 00 I t-> I I_~_ BUREAU OF GEOLOGY APALACHICOLA COUNTY: Franklin POPULATION SERVED: DRAINAGE BASIN: 11E Apalachicola River 3,000 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; twp wells 432 feet deep NUMBER & TYPE OF SERVICES: 950, undifferentiated RATED PLANT CAPACITY: 1.15 mgd PUMPAGE YEAR- 130 mg AVERAGE DAILY- 0.35 mg PER CAPITAL USE- 117 gpd FINISHED-WATER STORAGE: Elevated tanks and ground storage, 0.3 mg TREATMENT: Aeration, chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 0.38 mgd SEWAGE TREATMENT: Primary, secondary, chlorination HASTE DISCHARGED TO: Cool Springs-Scipio Creek REMARKS: Plant capacity more than sufficient to meet daily water require- ments. No plans made to expand water or sewage systems. Av- erage daily pumpage increased 75 percent from 0.20 mgd in 1956 to 0.35 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 1 Silica (Si0O) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Hitrite (NO2) Hardness as CaCO3 Carbonate (CO3) 24 76 64 68 8.0 332 164 115 466 COLLECTION DATE : 12-3-70 Noncarbonate hard- ness as CaCO Alkalinity as &C03 Strontium (Sr) Specific conduct- ance (micromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (C) Color (Pt-Co units) pH (units) 188 279 12 1,170 716 22 0 __ INFORMATION CIRCULAR NO. 81 BLOUNTSTOWN COUNTY: Calhoun POPULATION SERVED: 2,700 DRAINAGE BASIN: 11E Apalachicola River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; two wells 450 feet deep; yield 500 gpm each NUMBER & TYPE OF SERVICES: 930, undifferentiated RATED PLANT CAPACITY: 1.44 mgd PUMPAGE YEAR- 59 mg AVERAGE DAILY- 0.16 mg PER CAPITAL USE- 60 gpd FINISHED-WATER STORAGE: Elevated tanks and ground storage 0.25 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/irregularly SEWAGE DISCHARGE: 0.2 mgd SEWAGE TREATMENT: Primary, secondary, chlorination WASTE DISCHARGED TO: Sutton Creek, Old River, Apalachicola River REMARKS: Water is of good quality, Plant capacity adequate to meet water needs. No expansion of facilities planned. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 2 Silica (SiO2) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO2) Hardness as CaCO3 15 25 13 36 5.2 166 29 32 COLLECTION DATE : 11-17-70 Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance omicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) 0 398 230 22 0 8.0 BUREAU OF GEOLOGY BONIFAY COUNTY: Holmes POPULATION SERVED: 2,200 DRAINAGE BASIN: 12A Choctawhatchee River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; two wells NUMBER & TYPE OF SERVICES: 1, commercial; 652, undifferentiated RATED PLANT CAPACITY : 1.0 mgd PUMPAGE YEAR- 82. mg AVERAGE DAILY- 0.22 mg PER CAPITAL USE- 100 gpd FINISHED-WATER STORAGE: Elevated tank 0.15 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 0.12 mgd by plant SEWAGE TREATMENT: Primary, chlorination WASTE DISCHARGED TO: Bay Branch Creek by plant; ground by septic tanks REMARKS: Many residents use septic tanks. Average daily pumpage increased from 0.08 mgd in 1956 to .0.22 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 3 Silica (SiO) Calcium (Ca4 Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 9.1 41 2.1 1.9 .3 134 5.8 3.0 111 COLLECTION DATE : 11-17-70 Noncarbonate hard- ness as CaCO Alkalinity as CaC03 Strontium (Sr) Specific conduct- ance mmicromhos at 25 C) Dissolved solid (resi- due at 180C) Temperature (oC) Color (Pt-Co units) pH (units) 1 224 130 0 7.4 INFORMATION CIRCULAR NO. 81 2 BRISTOL COUNTY: Liberty POPULATION SERVED: 1,600 DRAINAGE BASIN: 11E Apalachicola River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; one main well and one standby well; yields, main well 100 gpm, standby well 160 gpm NUMBER & TYPE OF SERVICES: 20, commercial; 400, undifferentiated RATED PLANT CAPACITY : 0.20 mgd PUMPAGE YEAR- 58 mg AVERAGE DAILY- 0.16 mg PER CAPITAL USE-100 gpd FINISHED-WATER STORAGE: Elevated and pressure tanks 0.08 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/irregularly SEWAGE DISCHARGE: Individual septic tanks SEWAGE TREATMENT: None WASTE DISCHARGED TO: Ground REMARKS: Before 1940, city residents were supplied from individual wells. From 1940 through 1950, a privately owned water-supply system served the city. In 1950, the municipal system started with one well. A standby well was drilled in 1962 and produced good water for 2 years when the quality of water reportedly deteriorated owing to hydrogen sulfide. Av- erage daily pumpage increased from 0.02 mgd in 1956 to 0.16 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Standby Well Silica (SiO ) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 17 32 9.7 4.7 1.8 142 7.0 COLLECTION DATE : 10-15-70 Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) .32 245 145 23 0 8.0 BUREAU OF GEOLOGY CHATTAHOOCHEE COUNTY: Gadsden POPULATION SERVED: DRAINAGE BASIN: 11E Apalachicola River 2,878 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; two wells 200 and 239 feet deep. NUMBER & TYPE OF SERVICES: 1,000, domestic; 100, commercial; 0.005 percent, air con itioning. RATED PLANT CAPACITY: 0.5 mgd PUMPAGE a/ YEAR- 111 mg AVERAGE DAILY- 0.30 mg PER CAPITAL USE-105 gpd FINISHED-WATER STORAGE: Elevated tank and covered reservoir, 0.3 mg TREATMENT: Aeration, chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/irregularly SEWAGE DISCHARGE: 0.21 mgd, (plant capacity 0.5 mgd) SEWAGE TREATMENT: Primary, secondary (activated sludge), chlorination WASTE DISCHARGED TO: Mosquito Creek REMARKS: Before 1937, city water was supplied by the Florida State Hospi- tal. A city well was drilled in 1937 and another in 1957. From 1937 to 1955, the hospital supply well was used by the city only in emergency. About 30 percent (33 mgy) of the total municipal pumpage is used by com- merce and industry. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological SAMPLING POINT: Well 2 Silica (SiO2) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 8.3 2.7 .5 154 .6 2.6 Survey COLLECTION DATE : 7-29-70 Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (oC) Color (Pt-Co units) pH (units) 127 a Highest month June, 11.9 mg; lowest month, February 7.4 mg 1 .12 252 143 26 0 7.8 INFORMATION CIRCULAR NO. 81 27 CHIPLEY COUNTY: Washington POPULATION SERVED: 4,000 DRAINAGE BASIN: 12A Choctawhatchee River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; two wells, 139 and 200 feet deep. NUMBER & TYPE OF SERVICES: 1,100, undifferentiated RATED PLANT CAPACITY: 1.25 mgd PUMPAGE YEAR- 273 mg AVERAGE DAILY- 0.75 mg PER CAPITAL USE- 187 gpd FINISHED-WATER STORAGE: Elevated tank 0.08 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/irregularly SEWAGE DISCHARGE: 0.25 mgd SEWAGE TREATMENT: Primary, chlorination WASTE DISCHARGED TO: Alligator Creek REMARKS: The ground water is of excellent quality; no supply problems. Expansion of water supply and sewerage systems planned. Primary disposal plant has capacity of 0.3 mgd; secondary treatment plant ready for opera- tion in 1971. CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 2 Silica (SiO ) Calcium (Cai Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3. 8.1 37 1.9 1.8 .2 120 .2 3.2 .1 .0 .01 COLLECTION DATE : 11-18-70 Noncarbonate hard- ness as CaCO Alkalinity as aaC03 Strontium (Sr) Specific conduct- ance (micromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (oC) Color (Pt-Co units) pH (units) 2 .07 203 114 21.5 0 7.5 BUREAU OF GEOLOGY CRESTVIEW COUNTY: Okaloosa DRAINAGE BASIN: 12C Yellow River POPULATION SERVED: OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; three wells 604 to 920 feet deep; yield 500 gpm NUMBER & TYPE OF SERVICES: 2,600, undifferentiated RATED PLANT CAPACITY : 2.0 mgd PUMPAGE YEAR- 400 mg AVERAGE DAILY- 1.1 mg PER CAPITAL USE- 110 gpd FINISHED-WATER STORAGE: Elevated tanks, 0.8 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 0.4 mgd SEWAGE TREATMENT: Primary, secondary (trickling filter), chlorination WASTE DISCHARGED TO: Trammel Creek to Yellow River REMARKS: Supply system adequate; no immediate expansion is planned. Ac- cording to a recent investigation by the U. S. Geological Survey, abun- dant water of excellent quality available for future development. Aver- age daily pumpage increased from 0.57 mgd in 1956 to 1.1 mgd in 1970. Foster and Pascale (1971)- CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological SAMPLING POINT: Well 1 Silica (SiO) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (N02) Hardness as CaCO3 Carbonate (CO3) 15 26 10 4.7 1.7 115 7.2 6.0 .2 .0 .01 106 6 Survey COLLECTION DATE : 12-16-70 Noncarbonate hard- ness as CaCO Alkalinity as CaC03 Strontium (Sr) Specific conduct- ance (micromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) a List of selected references is on p. 211 10,000 235 150 22 0 8.5 INFORMATION CIRCULAR NO. 81 29 DE FUNIAK SPRINGS COUNTY: Walton POPULATION SERVED: 6,850 DRAINAGE BASIN: 12B Coastal area between Choctawhatchee and Yellow Rivers OWNERSHIP OF SUPPLY OR SYSTEM: Peoples Water Supply Co. SOURCE OF WATER: Ground water, Floridan aquifer; three wells 450 to 621 feet deep; yield 250 to 650 gpm NUMBER & TYPE OF SERVICES: 2,107 domestic; 165 commercial; 28 industrial RATED PLANT CAPACITY: 1.4 mgd PUMPAGE / YEAR- 228.4 mg AVERAGE DAILY- 0.6 mg PER CAPITAL USE- 91 gpd FINISHED-WATER STORAGE: Ground and elevated tank, 0.38 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 0.37 mgd SEWAGE TREATMENT: Primary, secondary (trickling filter), secondary, chlorination WASTE DISCHARGED TO: Sandy Creek REMARKS: Plant expansion is not planned, as capacity is twice average daily use. CHEMICAL ANALYSIS milligramss per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Supply well Silica (Si0O) 9.6 Calcium (Ca4 20 Magnesium (Mg) 6.3 Sodium (Na) 2.2 Potassium (K) .7 Bicarbonate (HCO3) 88 Sulfate (SO4) 4.0 Chloride (Cl) 3.0 Fluoride (F) 1.7 Nitrate (NO3) 2.3 Nitrite (NO2) Hardness as CaCO3 76 COLLECTION DATE: 10-28-70 Noncarbonate hard- ness as CaCO 4 Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) 154 Dissolved solid (resi- due at 1800C) 95 Temperature (0C) 21.5 Color (Pt-Co units) 0 pH (units) 8.1 a Highest month April, 25.4 mg; lowest month February, 15.8 mg. ) BUREAU OF GEOLOGY FT. WALTON BEACH COUNTY: Okaloosa POPULATION SERVED: 19,949 DRAINAGE BASIN: 12B Coastal area between Choctawhatchee and Yellow Rivers OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; nine wells, 613 to 850 feet deep; yield 300 to 760 gpm NUMBER & TYPE OF SERVICES: 7,315; undifferentiated RATED PLANT CAPACITY : 4.1 mgd PUMPAGE YEAR- 1,012 mg AVERAGE DAILY- 2.8 mg PER CAPITAL USE-140 gpd FINISHED-WATER STORAGE: 0.7 mg TREATMENT: Chlorination, aeration TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 2.0 mgd SEWAGE TREATMENT: Primary, secondary (trickling filter), secondary settling, chlorination WASTE DISCHARGED TO: Santa Rosa Sound REMARKS: Since 1950, the city has drilled one new well about every 2 years to meet demand. A new supply well is planned in 1971. A recent investigation by the U. S. Geological Survey showed that abundant ground water of excellent chemical quality is available. Pumpage increased from 0.55 mg in 1956 to 2.8 mg in 1970. Foster and Pascale (1971). CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey COLLECTION DATE: 12-17-70 SAMPLING POINT: Well 1 Silica (SiO)1 Calcium (Cai Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO) Hardness as CaCO3 13 10 5.8 132 8.8 248 8.0 100 Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 180C) Temperature (0C) Color (Pt-Co units) pH (units) 0 203 2.4 720 426 24 0 8.1 INFORMATION CIRCULAR NO. 81 31 MARIANNA COUNTY: Jackson POPULATION SERVED: 7,200 DRAINAGE BASIN: 11E Apalachicola River OWNERSHIP OF SUPPLY OR SYSTEM: North Florida Water Co. SOURCE OF WATER: Ground water, Floridan aquifer; four wells 309 to 561 feet deep. NUMBER & TYPE OF SERVICES: 5, commercial; 2,198, undifferentiated RATED PLANT CAPACITY: 2.0 mgd PUMPAGE a/ YEAR- 394 mg AVERAGE DAILY- 1.1 mg PER CAPITAL USE- 150 gpd FINISHED-WATER STORAGE: Elevated tank and ground storage 0.22 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 0.55 mgd SEWAGE TREATMENT: Primary, secondary, chlorination WASTE DISCHARGED TO: Chipola River REMARKS: Average daily pumpage increased from 0.70 mg in 1965 to 1.1 mg in 1970. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S..Geological SAMPLING POINT: Well 5 Silica (SiO2) Calcium (Cal Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO2) Hardness as CaCO3 16 4.3 92 1.7 234 9.4 45 Survey COLLECTION DATE : 11-9-70 Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) a Highest month September, 37 mg; lowest month April, 28 mg. 0 515 298 21 0 8.1 32 BUREAU OF GEOLOGY MILTON COUNTY: Santa Rosa POPULATION SERVED: DRAINAGE BASIN: 12D Blackwater River 5,400 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, sand-and-gravel aquifer; three wells, 180 to 186 feet deep; yields'400 to 750 gpm NUMBER & TYPE OF SERVICES: 2,674, undifferentiated RATED PLANT CAPACITY : 2.3 mgd PUMPAGE YEAR- 310. mg AVERAGE DAILY- 0.85 mg PER CAPITAL USE- 157 gpd FINISHED-WATER STORAGE: Elevated tanks, 0.35 mg TREATMENT: Chlorination, stabilization TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 1.2 mgd SEWAGE TREATMENT: Primary, secondary (trickling filter), digestion, pre- and post-chlorination (2.2 mg capacity) WASTE DISCHARGED TO: Blackwater River REMARKS: No ground-water problems exist in the Milton area,and no expansion of system is planned. Average daily pumpage increased from 0.25 mgd in 1956 to 0.85 mgd in 1970. Barraclough and Marsh (1962), Marsh (1966), Musgrove and others (1965, 1966). CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 1 Silica (Si0 ) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 .0 .01 3 COLLECTION DATE : 12-17-70 Noncarbonate hard- ness as CaCO Alkalinity as aCO3 Strontium (Sr) Specific conduct- ance (micromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (C) Color (Pt-Co units) pH (units) 1 2 .02 18 20 24 0 5.7 INFORMATION CIRCULAR NO. 81 NICEVILLE COUNTY: Okaloosa POPULATION SERVEDa/ 6,770 DRAINAGE BASIN: 12B Coastal Area between Choctawhatchee and Yellow Rivers OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; two wells, about 460 feet deep; yield (one well) 726 gpm NUMBER & TYPE OF SERVICES: 1,345, undifferentiated RATED PLANT CAPACITY : 1.4 mgd PUMPAGE YEAR- 250 mg AVERAGE DAILY- 0.7 mg PER CAPITAL USE- 103 gpd FINISHED-WATER STORAGE: Elevated tanks, 0.4 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 0.4 mgd SEWAGE TREATMENT: Primary, secondary (trickling filter), secondary set- tling, chlorination WASTE DISCHARGED TO: Boggy Bayou to Choctawhatchee Bay REMARKS: The water is of excellent quality. No water problems exist,and no plans are being made to expand the system. Average daily pumpage in- creased from 0.25 mgd in 1956 to 0.70 mgd in 1970. Fosterand Pascale (1971). CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 1 Silica (SiO2) Calcium (Cai Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO 3) Sulfate (S04) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 14 24 15 8.2 2.5 162 7.2 2.0 .3 .0 .01 122 COLLECTION DATE : 12-18-70 Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 180oC) Temperature (0C) Color (Pt-Co units) pH (units) a System also serves 81 customers outside city 279 168 24 0 8.3 4 BUREAU OF GEOLOGY PANAMA CITY COUNTY: Bay POPULATION SERVED: 30,916 DRAINAGE BASIN: 11F Coastal area between Apalachicola and Choctawhatchee Rivers OWNERSHIP OF SUPPLY OR SYSTEM: Bay County Water System SOURCE OF WATER: Surface water Deer Point Lake Reservoir NUMLBR & T'YPE OF SERVICES: 8,864, domestic; 1,155, commercial RATED PLANT CAPACITY: PUMPAGE: YEAR- 1,566 mg AVERAGE DAILY- 4.3 mg PER CAPITAL USE- 139 gpd FINISHED-WATER STORAGE: 1.7 mg TREATMENT: Chlorination, coagulation, softening, filtration, stabilization TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARCE: 3.9 mgd SEWAGE TREATMENT: Primary, secondary (trickling filter) WASTE DISChARGED TO: St. Andrews Bay; Watson Bayou to St. Andrews REMARKS: Before May 1967, the city's water supply was furnished by a municipal system from wells tapping the Floridan aquifer. Average daily uset increased from 2.7 mgd in 1956 to 4.3 mgd in 1970. Figure 4 shows the amountt of water supplied to Panama City, 1945-70. Figure 5 shows the mu- nicipalities supplied with water through Bay County Water System's conduit. Foster (1972), Toler and others (1964), Toler and Shampine (1965). CHDEMCAL ANALYSIS (milligrams per liter, except -as indicated): ANALYSIS BY: U. S. Geological Survey COLLECTION DATE: 1-13-71 SAMPLING POINT: Williams Bayou Pumping Station (treated water) Silica (SiO2) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO ) Eardness as CaCO3 3.4 8.2 1.7 4.3 .5 30 .8 7.5 .0 .3 .02 28 Noncarbonate hard- ness as CaCO Alkalinity as aCO3 Strontium (Sr) Specific conduct- ance Amicronhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (OC) Color (Pt-Co units) pH (units) 82 62 13.9 5 7.7 Figure 4. Total yearly pumpage, Panama City. BUREAU OF GEOLOGY -N- 0 5 MILES EXPLANATION A Sewoge-treoment plant Conduit S Water- onolysis-sompling site Reservoir Reservoir Figure 5. Distribution systems of Bay County Water System, Panama City area. <- INFORMATION CIRCULAR NO. 81 PENSACOLA COUNTY: Escambia POPULATION SERVED: 125,000 DRAINAGE BASIN: 12E Escambia River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, sand-and-gravel aquifer; 22 wells, 234 to 300 feet deep; yield, 1500 to 2,000 gpm NUMBER & TYPE OF SERVICES: 42,875, undifferentiated; 5 percent air cond. RATED PLANT CAPACITY: PUMPAGEa/YEAR-6313 mg(fig.6) AVERAGE DAILY-17.3 mg.PER CAPITAL USE-140 gpd FINISHED-WATER STORAGE: Elevated tanks, 1.0 mg TREATMENT: Aeration, chlorination, pH control TYPE/FREQUENCY OF ANALYSIS: Bacteriological/weekly; chemical/intermittent SEWAGE DISCHARGE: 7.8 mgd, (5 sewage treatment plants) SEWAGE TREATMENT: Primary, secondary (trickling filter and activated sludge) WASTE DISCHARGED TO: Escambia Bay, Pensacola Bay, Bayou Marcus Creek, Eightmile Creek, Thompson Bayou. (fig. 7). REMARKS: Water low in dissolved solids and of excellent chemical quality. Supply adequate to meet foreseeable demand. A U.S. Geological Survey in- vestigation, begun in 1970, is concerned with the occurrence of iron and carbon dioxide in the ground water from the sand-and-gravel aquifer. Av- erage daily pumpage increased from 9.9 mgd in 1956 to 17.3 mgd in 1970. For others served, see figure 7. Barraclough and Marsh (1962), Marsh (1966), Musgrove and others (1961, 1965, 1966), Trapp (1971). CHEMICAL ANALYSES (milligrams per liter, except as indicated) TYPE OF WATER: RAW (R) TREATED (T) ANALYSIS BY: (R) U.S. Geological Survey (T) Florida State Board of Health COLLECTION DATE: (R) 12-15-70 (T) 3-30-65 SAMPLING POINT: (R) West Plaht Well (I and Cervantes Streets) (T) Tap at Main Plant Raw Treated Raw Treated Silica (SiO ) 8.8 Calcium (Ca3 1.4 Magnesium (Mg) 1.5 Sodium (Na) 6.3 Potassium (K) .4 Bicarbonate (HCC3) 3 Sulfate (SO ) .0 Chloride (Ci) 8.5 Fluoride (F) .0 Nitrate (NO ) 13 Nitrite (NO ) .01 Hardness as CaCO 10 Noncarbonate hard- ness as CaCO 7 Alkalinity as CaCO32 Strontium (Sr) .03 Specific conduct- ance (micromhos at 25*C) 59 Tot. Dissolved Solids at 1030C 7 *2.9 *12 10 14 1.3 Dissolved solid (resi- due at 180C) 4 Temperature (C) 2 Color (Pt-Co units) pH (units) Odor pH (laboratory) pHs Stability Index (2pHs-pH) Saturation Index (pH-pHs) ABS (detergent) 6 2 0 5 6.0 None 7.5 9.7 11.5 -1.8 .0 Appearance Interpretation Highly *20 Iron (Fe) 10 Bicarbonate, as CaCO Carbon Dioxide, as C 3 Carbonate, as CaCO3 Hydroxide, as CaCO3 Tot. Hardness (Verserate), as CaCO3 531 *Calculated values Clear corrosive .08 a Highest month May, 724 mg; lowest month February, 380 mg. 38 BUREAU OF GEOLOGY 0 I- -, (4.4 _____o b SNO11V9 30 SNOI-l11W '39Vdwnd INFORMATION CIRCULAR NO. 81 0 3 MILES 11W1 * Supply well S Water-analysis-sampling site [3 Served by Pensacola E Served by Worrington A2 Sewage-treatment plant I. Moin 4. Lincoln Rood 2. Northeast 5. Scenic Hills 3.Montcloir O Elevated storage tank Delimited urban compact area boundary Figure 7. Areas supplied water by the city of Pensacola and the Peoples-Water Company, Warrington. 40 BUREAU OF GEOLOGY PORT ST. JOE COUNTY: Gulf POPULATION SERVED: 4,500 DRAINAGE BASIN: 11F Coastal area between Apalachicola and Choctawhatchee Rivers OWNERSHIP OF SUPPLY OR SYSTEM: St. Joe Paper Company SOURCE OF WATER: Surface water, Chipola River (fig. 8) NUMBER & TYPE OF SERVICES: 1,290, undifferentiated RATED PLANT CAPACITY : 1.0 mgd PUMPAGEa' YEAR- 163 mg AVERAGE DAILY- 0.4 mg PER CAPITAL USE-99 gpd FINISHED-WATER STORAGE: 0.4 mg TREATMENT: Flocculation, softening, stabilization, filtration, chlorination IIPE/FREQUENCY OF ANALYSIS: Bacteriological/daily; chemical/daily SEWAGE DISCHARGE: 0.1 mgd SEWAGE TREATMENT: Primary, chlorination WASTE DISCHARGED TO: St. Joseph Bay REMARKS: Average daily pumpage increased from 0.36 mgd in 1956 to 0.4 mgd in 1970. Treatment includes taste and odor control. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey COLLECTION DATE-: 1-12-71 SAMPLING POINT: Tributary canal for water supply to city an Port St. Joe Paper Company. Silica (S1O ) 5.8 Noncarbonate hard- Calcium (CaJ 7.0 ness as CaCO 1 Magnesium (Mg) 12 Alkalinity as CaCO3 21 Sodium (Na) 4.2 Strontium (Sr) .03 Potassium (K) 1.5 Specific conduct- Bicarbonate (HCO3) 26 ance Smicromhos Sulfate (SO4) 2.4 at 25 C) 74 Chloride (Cl) 4.5 Dissolved solid (resi- Fluoride (F) .0 due at 1800C) 41 Nitrate (NO.) 1.3 Temperature (0C) 25.6 Nitrite (NO) .02 Color (Pt-Co units) 10 Hardness as CaCO3 23 pH (units) 7.3 a Pumpage is for 1969. February, 10.5 mg. Highest month January, 16.6 mg, lowest month INFORMATION CIRCULAR NO. 81 41 hLHOUN CO. -- GULF CO. 0 5 10 MILES EXPLANATION Sewage-treatment plant SConduit S=I Pumping station SWater- analysis-sampling site Figure 8. Distribution system of St. Joe Paper Company, Port St. Joe. 42 BUREAU OF GEOLOGY VALPARAISO COUNTY: Okaloosa POPULATION SERVED: 6,000 DRAINAGE BASIN: 12B Coastal area between Choctawhatchee and Yellow Rivers OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; three wells about 540 feet deep; yield 400 to 800 gpm, NUMBER & TYPE OF SERVICES: 76, commercial; 1,056, undifferentiated RATED PLANT CAPACITY: 2.4 mgd PUMPAGE YEAR-255 mg AVERAGE DAILY- 0.7 mg PER CAPITAL USE- 117 gpd FINISHED-WATER STORAGE: Elevated tanks, 0.2 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 0.50 mgd SEWAGE TREATMENT: Primary, secondary (trickling filter), secondary set- tling, chlorination WASTE DISCHARGED TO: Tom Boggy Bayou REMARKS: No expansion of water system is planned. Average daily pumpage in- creased from 0.08 mgd in 1956 to 0.7 mgd in 1970. Fosterand Pascale (1971). CHEMICAL ANALYSIS (milligrams per liter, except -as indicated) Water: Raw ANALYSIS BY: U. S. Geological SAMPLING POINT: Well 2 Silica (SiO ) Calcium (CaJ Magnesium (Mg) Sodium (Ma) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (C1) Fluoride (F) Nitrate (NO3) Nitrite (NOP Hardness as CaCO3 2.6 173 8.8 8.0 .2 .0 .01 45 Survey COLLECTION DATE: 12-18-70 Noncarbonate hard- ness as CaCO 3 Alkalinity as aCO3 142 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) 304 Dissolved solid (resi- due at 180C) 184 Temperature (0C) 24 Color (Pt-Co units) 0 pH (units) 8.: INFORMATION CIRCULAR NO. 81 43 WARRINGTON COUNTY: Escambia POPULATION SERVED: 24,750 DRAINAGE BASIN: 12E Escambia River; 12F Perdido River OWNERSHIP OF SUPPLY OR SYSTEM: Peoples Water Co. SOURCE OF WATER: Ground water, sand-and-gravel aquifer; six wells, 226 to 286 feet deep; yield about 270 gpm NUMBER & TYPE OF SERVICES: 7,091, undifferentiated RATED PLANT CAPACITY: 6.4 mgd PUMPAGE A/ YEAR- 873 mg AVERAGE DAILY- 2.4 mg PER CAPITAL USE- 96 gpd FINISHED-WATER STORAGE: Elevated tanks, 0.2 mg TREATMENT: Chlorination and stabilization TYPE/FREQUENCY OF ANALYSIS: Bactpriological/near daily; chemical/irregularly SEWAGE DISCHARGE: Septic tanks. h SEWAGE TREATMENT: WASTE DISCHARGED TO: REMARKS: Water of excellent quality. No expansion of either the water supply or sewage-treatment system is planned. Average daily pumpage increased from 2.13 mgd in 1956 to 2.4 mgd in 1970. Barraclough and Marsh (1962), Marsh (1966), Musgrove and others (1961, 1965, 1966), Trapp (1971). CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological SAMPLING POINT: Well 4 Silica (SiO ) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (S04) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO7) Hardness as CaCO3 10 1.1 .4 .7 .5 3 .0 6.5 .0 2.8 .01 4 Survey COLLECTION DATE : 12-14-70 Noncarbonate hard- ness as CaCO Alkalinity as CaC03 Strontium (Sr) Specific conduct- ance mmicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) a Highest month May, 101 mg; lowest month November, 44 mg b About 2 percent of the residents discharge domestic sewage to the West Pensacola Utilities Sewage System. 44 BUREAU OF GEOLOGY NORTHERN, NORTHEASTERN, AND NORTH-CENTRAL FLORIDA The northern, northeastern, and north-central Florida section extends from the Apalachicola River eastward to the Atlantic Ocean and from the Georgia line southward to the latitude of Gainesville (fig. 9). The principal sources of ground-water supply for municipal use in this section is the Floridan aquifer, except in coastal St. John's and Flagler counties, where the sand aquifer supplies water to St. Augustine and beach communities. During 1970, a total of 28,629.29 million gallons was withdrawn for municipal supplies from the Floridan aquifer, and 408.04 million gallons was withdrawn from the nonartesian and shallow-sand aquifers and 342.04 million gallons from an infiltration gallery at St. Augustine. The most populous area, the Jacksonville-Fernandina Beach area, pumped 16,132.40 million gallons, or 53.8 percent of the total water supplied by municipal systems. G E 0 I A 4 ACLP4. JACK *I ONVILL J AC H WA- U COLUMBIA H L EWAK wovLLA A J SUWANNEE *s c--y Y= UNION -__ TAYL0R I U o / LAKE CR LS C AY 30* FRANK LIN C L IAFAYETYTE R a usT LAFAYETTE AGUSTINU RADFORD s T ,/ JOHNS OF ARA A L A C H U AN ILCRI PUTNAM 0..,o I X I E IS P U T N A M .\ I Im PALATKA 0 40 MILES CROSS Cityl _j3 raNSON0' FLAGLER LEVY 00 -- __I,-. U L [] Figure 9. Municipalities in northern, northeastern, and north-central Florida for which water-use data are given. R G 5 BUREAU OF GEOLOGY BRONSON COUNTY: Levy POPULATION SERVED: 812 DRAINAGE BASIN: 09H Coastal area between Withlacoochee and Suwannee Rivers OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; one well NUMBER & TYPE OF SERVICES: 200, undifferentiated RATED PLANT CAPACITY: 0.7 mgd PUMPAGe/ YEAR- 29.2 mg AVERAGE DAILY- 0.08 mg PER CAPITAL USE-98 gpd FINISHED-WATER STORAGE: 0.01 mg TREATMENT: Chlorination, aeration TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/irregularly SEWAGE DISCHARGE: Septic tanks SEWAGE TREATMENT: None WASTE DISCHARGED TO: Ground REMARKS: Water supply derived from the Floridan aquifer,which is generally less than 50 feet below the surface. Supply abundant and of excellent quality. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: Orlando Laboratories SAMPLING POINT: Well Silica (SiO0) Calcium (Ca4 Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO0) Hardness as CaCO3 Iron (Fe) Phosphate (PO4) 4.0 72 4.4 235 0 0 COLLECTION DATE : 3-5-70 Noncarbonate hard- ness as CaCO Alkalinity as 2aC03 Strontium (Sr) Specific conduct- ance Amicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) a Highest month May, 3.9 mg; lowest month October, 2.0 mg. 200 7 7.0 INFORMATION CIRCULAR NO. 81 BUNNELL COUNTY: Flagler DRAINAGE BASIN: 09E St. Johns River OWNERSHIP OF SUPPLY OR SYSTEM: SOURCE OF WATER: Ground water, deep; yield 150 to 250 gpm POPULATION SERVED: 1,554 Municipal non-artesian aquifer; three wells, 115 feet NUMBER & TYPE OF SERVICES: 450, domestic; 50, commercial RATED PLANT CAPACITY : 0.6 mgd PUMPAGE-' YEAR- 66 mg AVERAGE DAILY- 0.18 mg PER CAPITAL USE-116 gpd FINISHED-WATER STORAGE: Elevated tank, .08 mg TREATMENT: Chlorination, filtration, softening, pH control TYPE/FREQUENCi OF ANALYSIS: Bacteriological/monthly; chemical/daily; SEWAGE DISCHARGE: Septic tanks. spectographic/daily SEWAGE TREATMENT: None WASTE DISCHARGED TO: Ground REMARKS: Aquifers are both nonartesian and artesian. The nonartesian aquifer extends from land surface to at least 150 feet. It includes de- posits of Miocene-Holocene age. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. SAMPLING POINT: -- Silica (SiO0) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO2) Hardness as CaCO3 Geological Survey COLLECTION DATE: 8-4-71 112 7.9 53 1.5 348 8.8 100 .1 .1 .00 313 Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) a Highest month July, 6 mg; lowest month January, 4 mg. 28 285 .72 847 514 22 10 7.8 BUREAU OF GEOLOGY CRAWFORDVILLE COUNTY: Wakulla POPULATION SERVED: 100 DRAINAGE BASIN: 11B Coastal area between Aucilla and Ochlockonee Rivers OWNERSHIP OF SUPPLY OR SYSTEM: City of Crawfordville Water Users Fund SOURCE OF WATER: Ground water, Floridan aquifer; one well 156 feet deep; yield 71 gpm NUMBER & TYPE OF SERVICES: 25, domestic; 11, commercial RATED PLANT CAPACITY : 0.02 tgd PUMPAGE/ YEAR- 4.0 mg AVERAGE DAILY- 0.01 mg PER CAPITAL USE-110 gpd FINISHED-WATER STORAGE: Pressure tank, 1,000 gallons TREATMENT: None TYPE/FREQUENCY OF SEWAGE DISCHARGE: SEWAGE TREATMENT: ANALYSIS: Bacteriological/annually; chemical/irregularly Individual septic tanks None WASTE DISCHARGED TO: Ground REMARKS: Present supply well drilled 1949. Most residents served by pri- vately owned wells. A new water system is under construction. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well Silica (SiO ) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 9.3 45 3.3 3.7 .6 150 9.6 6.0 COLLECTION DATE: i. Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) -25-71 270 164 22 0 8.3 a Highest month May, 0.52 mg; lowest month January, 0.26 mg. INFORMATION CIRCULAR NO. 81 CROSS CITY COUNTY: Dixie POPULATION SERVED: 2,000 DRAINAGE BASIN: 09K Coastal area between Suwannee and Aucilla Rivers OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; two wells, 105 and 144 feet deep, yield 400 gpm NUMBER & TYPE OF SERVICES: 840, domestic; 1, commercial RATED PLANT CAPACITY : 0.75 mgd PUMPAGE YEAR- 153 mg AVERAGE DAILY- 0.42 mg PER CAPITAL USE-210 gpd FINISHED-WATER STORAGE: 0.15 mg TREATMENT: Aeration, 'filtration, chlorination, stabilization TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/monthly SEWAGE DISCHARGE: 0.02 mgd (plant); most residents use septic tanks SEWAGE TREATMENT: Primary, secondary (activated sludge), secondary settling, chlorination WASTE DISCHARGED TO: Drainage ditch tributary to unnamed creek (plant); ground (septic tanks) REMARKS: Average daily pumpage increased from 0.22 mgd in 1956 to 0.42 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey COLLECTION DATE: 12-17-70 SAMPLING POINT: Well Silica (SiO ) Calcium (Cal Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 3.8 85 9.8 11 1.5 304 8.0 14 Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) 4 249 .09 510 340 23 0 8.1 ) BUREAU OF GEOLOGY FERNANDINA BEACH COUNTY: Nassau POPULATION SERVED: 6,844 DRAINAGE BASIN: 09C St. Marys River and Coastal Area OWNERSHIP OF SUPPLY OR SYSTEM: Florida Public Utilities Co SOURCE OF WATER: Ground water, Floridan aquifer; seven wells, 731 to 1,205 feet deep NUMBER & TYPE OF SERVICES: 2,226, domestic; 213, commercial RATED PLANT CAPACITY : 7.0 md PUMPAGE-' YEAR- 610 mg AVERAGE DAILY- 1.7 mg PER CAPITAL USE-250 gpd FINISHED-WATER STORAGE: Elevated tank, .08 mg TREATMENT: Aeration, chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/semimonthly; chemical/periodic SEWAGE DISCHARGE: 0.5 mgd SEWAGE TREATMENT: Primary WASTE DISCHARGED TO: Amelia River REMARKS: As in coastal areas, salt-water encroachment is a potential prob- lem. Average daily pumpage increased from 0.75 mgd in 1956 to 1.7 mgd in 1970. Levo (1961a, 1961b, 1966). CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw (1) Fla. Board of Health ANALYSIS BY:(2) U.S. Geological Survey COLLECTION DATE: (1) 4-10-59 SAMPLING POINT: (1) Well 1; (2) Well N-24A (2) 6-17-71 Silica (SiO ) Calcium (Ca8 Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 Iron (Fe) AUrlL LL 36 Noncarbonate hard- 69 66 ness as CaCO 34 36 Alkalinity as CaCO3 28 Strontium (Sr) 3.2 Specific conduct- 192 190 ance Smicromhos 134 170 at 25 C) 29 35 Dissolved solid (resi- .65 .7 due at 180C) 464 .1 Temperature (oC) .00 Color (Pt-Co units) 5 316 314 pH (units) 7, .0 158 156 .87 710 491 5 .3 7.3 a Highest month 72 mg; lowest month 42 mg. INFORMATION CIRCULAR NO. 81 GAINESVILLE COUNTY: Alachua POPULATION SERVED: 70,000 DRAINAGE DASIN: 09E St. Johns River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; 14 wells, 365-750 feet deep; total yield 45,500 gpm NUMBER & TYPE OF SERVICES: 15,733 undifferentiated RATED PLANT CAPACITY: 15 mgd; 2 plants PUMPAGEa/ YEAR-3,975 mg AVERAGE DAILY-10.9 mg PER CAPITAL USE-155 gpd FINISHED-WATER STORAGE: Two elevated tanks, 1.50 mg *TREATMENT: Aeration, chlorination, fluoridation, coagulation, filtration TYPE/FREQUENCY OF ANALYSIS: Chemical/monthly; bacteriological/weekly SEWAGE DISCiiAKGE: 6.3 mgd (3 plants) SEWAGE TREATMENT: Plant 1, trickling filter; plant 2, extended aeration WASTE DISCHARGED TO: Paynes Prairie REMARKS: *Treatment also includes softening and stabilization. Abundant supplies of water are available from the Floridan aquifer. Average daily pumpage increased from 3.6 mgd in 1956 to 10.9 mgd in 1970. Clark and others (1962, 1964a, 1964b). CHEMICAL ANALYSES (milligrams per liter, except as indicated) TYPE OF WATER: RAW (R) TREATED ANALYSIS BY: (R) U. S. Geological Survey COLLECTION DATE: (R) 6-6-71 SAMPLING POINT: (R) Well 4 (T) Not reported Raw Treated Silica (SiO ) 19 Calcium (Ca3 82 Magnesium (Mg) 15 Sodium (Na) 8.0 Potassium (K) 1.1 Bicarbonate (HCO3)250 Sulfate (SO ) 58 Chloride (C;) 13 Fluoride (F) .4 Nitrate (NO ) 1.1 Nitrite (NO2) .01 Hardness as CaCO 262 Noncarbonate hard- ness as CaCO 62 Alkalinity as 8aC02200 Strontium (Sr) .86 Specific conduct- ance (micromhos at 250C) 525 (T) (T) Black Laboratories, Inc. (T) 11-20-67 Raw Treated Dissolved solid (resi- 44 due at 1800C) 335 42 Temperature (*C) 24.5 Color (Pt-Co units) 5 pH (units) 7.4 pHs 40 Iron (Fe) 21 Carbon Dioxide as CaCO .95 Carbonate Hardness as CaCO3 Phenolphthalin Alkalinity as CaCO3 86(total) Methyl Orange Alkalinity as CaCO3 30 141 7.7 8.4 .05 5 56 2 56 a Pumpage is for 1969. Highest month October, 400 mg; lowest month December, 280 mg; city supplies water to University of Florida. COUNTY: Clay DRAINAGE BASIN: BUREAU OF GEOLOGY GREEN COVE SPRINGS POPULATION SERVED: 3,857 09E St. Johns River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; three wells, 605 to 800 feet deep NUMBER & TYPE OF SERVICES: 1,500, domestic; 200, commercial RATED PLANT CAPACITY : 1.8 mgd PUMPAGE YEAR- 141.0 mg AVERAGE DAILY- .39 mg PER CAPITAL USE-100 gpd FINISHED-WATER STORAGE: Two elevated tanks, 0.13 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: Septic tanks SEWAGE TREATMENT: None WASTE DISCHARGED TO: St. Johns River REMARKS: Average daily pumpage decreased from 0.42 mgd in 1956 to 0.39 mgd in 1970. Clark and others (1962, 1964a, 1964b). CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: -- Silica (SiO,) Calcium (CaY Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO,) Eardness as CaCO3 12 4.0 1.6 101 20 5.0 .2 .0 .00 96 COLLECTION DATE: 9-24-71 Noncarbonate hard- ness as CaCO 13 Alkalinity as aaCO3 83 Strontium (Sr) .7( Specific conduct- ance (micromhos at 25C) 215 Dissolved solid (resi- due at 1800C) 127 Temperature (0C) 24 Color (Pt-Co units) 0 pH (units) 6.2 INFORMATION CIRCULAR NO. 81 JACKSONVILLE COUNTY: Duval DRAINAGE BASIN: 09E St. Johns River POPULATION SERVED: 190,000 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; 66 deep wells 750-1400 ft deep, 6 shallow less than 200 ft deep; yield (deep wells) 5,000-17,450 gpm NUMBER & TYPE OF SERVICES: 62,000 domestic; 7,000, commercial RATED PLANT CAPACITY: 110.0 mgd PUMPAGEa/ YEAR-15,521.8 mg AVERAGE DAILY-44.0 mg PER CAPITAL USE- 132 gpd FINISHED-WATER STORAGE: Elevated tanks, 3.9 mg TREATMENT: Aeration and chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/daily; chemical/quarterly SEWAGE DISCHARGE: 25 mgd SEWAGE TREATMENT: Primary, aeration, activated sludge, incineration WASTE DISCHARGED TO: St. Johns River REMARKS: City is acquiring privately owned peripheral distribution systems. As of January 13, 1971, city had acquired 16 systems. Average daily pumpage increased from 28 mgd in 1950 to 44 mgd in 1970. Total yearly pumpage, 1921-1970 is shown on figure 11. Leve (1966, 1968b),Leve and Goolsby (1966, 1967, 1969). CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw (1) Fla State Bd of Health ANALYSIS BY US. Geological Survey COLLECTION DA Silica (SiO ) Calcium (Cai Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO2) Hardness as CaCO3 Hydrogen Sulfide (H2S) b/ (1) 67 27 E (1) 1-31-41 (2) 6-17-71 -15; (2) Well D-50 (old C-15) (2) -(- Noncarbonate hard- 65 ness as CaCO 26 Alkalinity as caC03 11 Strontium (Sr) 1.8 Specific conduct- 160 ance (micromhos 146 at 250C) 13 Dissolved solid (resi- .7 due at 1800C) .2 Temperature (0C) .00 Color (Pt-Co units) 273 pH (units) (1) (2) 142 131 3.7 555 384 368 0 7.5 a Highest month May, 1,615 mg; lowest month February, 1,042 mg; city supplies water to several subdivisions (fig. 10). b Hydrogen sulfide present, but concentration not determined (1) Well C- 54 BUREAU OF GEOLOGY ./ MAYPORT J& K ONVILLE BEACH 0 3 MILES LL31 EXPLANATION O Elevated storage tonk Areas served by Jacksonville municipal supply Ground storage tank es Water- analysis sampling site Fire 10. Areas supplied water by the city of Jacksonville. I,w Vw >0 14,000 0 -j -I 9 12,000 0 ( 0, 2 10,000 -JAA K7 6,000 4,0 2,000 1925 1930 1935 1940 1945 1950 1955 1960 1965 1970 Figure 11. Total yearly pumpage, city of Jacksonville. 4 0. 0. -- ------ ON- m s a I, F% Inzz 01 ~ BUREAU OF GEOLOGY JACKSONVILLE BEACH COUNTY: Duval DRAINAGE BASIN: 09E St. Johns River POPULATION SERVED: OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; 6 wells, 800 to 975 feet deep. Three wells are in use. NUMBER & TYPE OF SERVICES: 4,000, domestic; 5 percent air conditioning RATED PLANT CAPACITY: 5.98 mgd PUMPAGEA/ YEAR- 730 mg AVERAGE'DAILY- 2.0 mg PER CAPITAL USE-150 gpd FINISHED-WATER STORAGE: Elevated tanks, 0.45 mg TREATMENT: Aeration, chlorination, softening TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/annually SEWAGE DISCHARGE: 1.8 mgd SEWAGE TREATMENT: Contact stabilization WASTE DISCHARGED TO: Intracoastal Waterway REMARKS: Average daily pumpage increased from 1.3 mgd in 1956 to 2.0 mgd in 1970. Leve (1966, 1968b),Leve and Goolsby (1966, 1967, 1969). CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well D-343 Silica (SiO2) Calcium (Cai Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 26 54 30 26 1.9 176 103 46 COLLECTION DATE : 6-17-71 Noncarbonate hard- ness as CaCO Alkalinity as &aCO3 Strontium (Sr) Specific conduct- ance (micromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (C) Color (Pt-Co units) pH (units) a Highest month May, 79 mg; lowest month October, 53 mg. 12,600 117 144 2.2 600 396 0 8.0 INFORMATION CIRCULAR NO. 81 JASPER COUNTY: Hamilton DRAINAGE BASIN: 09J Suwannee River POPULATION SERVED: 3,034 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; three wells, 345 to 740 feet deep; yields 200 to 600 gpm NUMBER & TYPE OF SERVICES: 870, domestic; 138, commercial; 1 percent air conditioning RATED PLANT CAPACITY: 1.001 mgd PUMPAGEC/ YEAR- 161 mg AVERAGE DAILY- 0.44 mg PER CAPITAL USE-142 gpd FINISHED-WATER STORAGE: Elevated tanks and reservoir, 0.40 mg TREATMENT: Chlorination, softening, coagulation, filtration TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 0.30 mgd SEWAGE TREATMENT: Primary, secondary (activated sludge), secondary settling, chlorination WASTE DISCHARGED TO: Aeration ponds that overflow to Sugar Creek during high water. REMARKS: First well completed in 1916, second in 1932, and another in 1966. Most serious problem is inadequate distribution mains and maximum pumping rate of only 700 gpm; water shortages become critical during peak demands. Another problem is high concentration of dissolved solids in the water. No water-resource investigation has been made in Hamilton County. Aver- age daily pumpage increased from 0.20 mgd in 1956 to 0.44 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except'as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 3 Silica (SiO0) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO2) Hardness as CaCO3 Carbonate (CO3) 27 129 71 8.0 1.6 204 440 10 COLLECTION DATE : 1-26-71 Noncarbonate hard- ness as CaCO Alkalinity as CaC03 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) a Highest month October, 15 mg; lowest month December, 12 mg. water to adjacent areas and subdivisions. City supplies 435 180 1.1 1,200 804 22 0 8.5 BUREAU OF GEOLOGY LAKE BUTLER COUNTY: Union DRAINAGE BASIN: 09J Suwannee River POPULATION SERVED: 1,598 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; two wells, 357 and 402 feet deep NUMBER & TYPE OF SERVICES: 325, domestic; 250, undifferentiated RATED PLANT CAPACITY : 1.37 mad PUMPAGE YEAR- 37 mg AVERAGE DAILY- 0.1 mg PER CAPITAL USE-68 gpd FINISHED-WATER STORAGE: Elevated tank, 0.10 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Chemical/irregularly SEWAGE DISCHARGE: Contact stabilization SEWAGE TREATMENT: 0.3 (estimated) WASTE DISCHARGED TO: Richard Creek to New River REMARKS: Clark and others (1962, 1964a, 1964b). CHLEMICAL. ANALYSIS milligramss per liter, except as indic~a~_te4Waer Raw ANALYSIS BY: Florida State Bd of Health COLLECTION DATE: 5-1-61 SAMPLING POINT: -- Silica (SiO ) Calcium (CaJ 41 Magnesium (Mg) 18 Sodium (Na) Potassium (K) Bicarbonate (HCO3) 192 Sulfate (SO4) <10 Chloride (Cl) 15 Fluoride (F) .25 Nitrate (NO3) Nitrite (NON ) Bardness as CaCO, 178 Hydrogen Sulfide (H2S) Trace Noncarbonate hard- ness as CaCO Alkalinity as CaC03 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (oC) Color (Pt-Co units) pH (units) Iron (Fe) 229 5 7.5 INFORMATION CIRCULAR NO. 81 LAKE CITY COUNTY: Columbia DRAINAGE BASIN: 09J Suwannee River POPULATION SERVED: OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Cround water, Floridan aquifer; five wells 250 to 500 feet deep; yields 400 to 900 gpm NUMBER & TYPE OF SERVICES: 3,974, undifferentiated; 5 percent air condi- tioning RATED PLANT CAPACITY : 4.9 mgd PUMPAGEa' YEAR- 625 mg AVERAGE DAILY- 1.72 mg PER CAPITAL USE-104 gpd FINISHED-WATER STORAGE: 3 storage tanks, 1.25 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 1.2 mgd SEWAGE TREATMENT: Primary, secondary (trickling filter), secondary settling, chlorination WASTE DISCHARGED TO: Big Lake REMARKS: System in operation since 1905. Additional wells were drilled in 1942, 1951, and 1957. No water-supply problems exist. Average daily pumpage increased from about 1.0 mgd in 1956 to 1.7 mgd in 1970. Meyer (1962). CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. SAMPLING POINT: We Silica (SiO0) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HC03) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO2) Hardness as CaCO3 Geological Survey COLLECTION DATE: ill 2 at Water Treatment Plant 19 38 13 7.4 .9 180 1.6 10 .1 1.2 .06 149 Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance nmicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) 12-17-70 315 210 22 0 8.2 a Highest month May, 69 mg; lowest month February, 32 mg. City supplies water to Lake City Junior College and Aero Corp. 16,600 BUREAU OF GEOLOGY LIVE OAK COUNTY: Suwannee DRAINAGE BASIN: 09J Suwannee River POPULATION SERVED: 7,000 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; three wells 300 to 1,145 feet deep NUMBER & TYPE OF SERVICES: 2,300, undifferentiated RATED PLANT CAPACITY : 2.74 mgd PUMPAGE YEAR- 219 mg AVERAGE DAILY- 0.60 mg PER CAPITAL USE-86 gpd FINISHED-WATER STORAGE: Elevated tanks and ground storage, 0.73 mg TREATMENT: Aeration, chlorination, filtration TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/monthly SEWAGE DISCHARGE: 0.43 mgd SEWAGE TREATMENT: Primary, secondary (trickling filter), chlorination WASTE DISCHARGED TO: Basin at plant REMARKS: At present growth rate, no water-supply problems are expected in the foreseeable future. Average daily pumpage increased from about 0.50 mgd in 1956 to 0.60 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 5 Silica (SiO ) Calcium (Ca4 Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 8.0 56 .2 188 4.8 2.0 .2 2.0 .01, 157 I COLLECTION DATE: 12-3-70 Noncarbonate hard- ness as CaCO Alkalinity as caCO3 Strontium (Sr) Specific conduct- ance mmicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (oC) Color (Pt-Co units) pH (units) 3 154 .07 313 180 21 0 8.1 INFORMATION CIRCULAR NO. 81 61 MACCLENNY COUNTY: Baker POPULATION SERVED: 2,648 DRAINAGE BASIN: 09C St. Marys River and Coastal Area OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; two supply wells, 595 and 704 feet deep, one standby well 455 feet deep; yields 200-900 gpm. NUMBER & TYPE OF SERVICES: 175, commercial; 2,130, undifferentiated RATED PLANT CAPACITY: PUMPAGE YEAR- 109.5 mg AVERAGE DAILY- 0.30 mg PER CAPITAL USE-113 gpd FINISHED-WATER STORAGE: Elevated tank, 0.06 mg TREATMENT: Softening, chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 0.1 mgd SEWAGE TREATMENT: Primary settling, sludge digestion and drying, oxidation WASTE DISCHARGED TO: Turkey Creek to South Prong St. Marys River REMARKS: Daily pumpage increased from 0.13 mgd in 1950 to about 0.30 mgd in 1970. Leve (1968a),Pride (1958). CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well B-13 Silica (SiO2) 19 Calcium (CaJ 36 Magnesium (Mg) 14 Sodium (Na) 11 Potassium (K) 1.3 Bicarbonate (HCO3) 152 Sulfate (SO4) 24 Chloride (Cl) 12 Fluoride (F) .5 Nitrate (NO ) .2 Nitrite (NO2) .00 Hardness as CaCO3 149 COLLECTION DATE: 6-17-71 Noncarbonate hard- ness as CaCO 24 Alkalinity as CaCO3 125 Strontium (Sr) .9( Specific conduct- ance (micromhos at 250C) 330 Dissolved solid (resi- due at 1800C) 198 Temperature (0C) Color (Pt-Co units) 0 pH (units) 7.3 BUREAU OF GEOLOGY MADISON COUNTY: Madison DRAINAGE BASIN: 11A Aucilla River POPULATION SERVED: 5,000 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; three wells, main well yields 1,600 gpm; two standby wells yield 500 gpm each NUMBEE & TYPE OF SERVICES: 0.01 percent, air conditioning; 1,535, undifferen- tiated RATED PLANT CAPACITY : 3.2 mgd PUMPAGEU / YEAR- 197 mg AVERAGE DAILY- 0.54 mg PER CAPITAL USE-108 gpd FINISHED-WATER STORAGE: Elevated tanks, 0.22 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/bimonthly SEWAGE DISCHARGE: 0.28 mgd (50 percent of residents use septic tanks) SEWAGE TREATMENT: Primary, secondary (trickling filter), secondary settling, chlorination WASTE DISCHARGED TO: Unnamed pond (plant), ground (septic tanks) REMARKS: No water-supply problems anticipated at present rate of growth. Average daily pumpage increased from 0.37 mgd in 1956 to 0.54 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological SAMPLING POINT: Well Silica (SiO0) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NOs) Hardness as CaCO3 9.8 46 7.6 2.9 .5 172 1.2 7.0 .0 .0 .01 Survey COLLECTION DATE : 12 Noncarbonate hard- ness as CaCO Alkalinity as aCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 180C) Temperature (0C) Color (Pt-Co units) pH (units) a Highest month October, 20 mg; lowest month February, 14 mg. --18-70 6 141 290 201 22 0 7.9 INFORMATION CIRCULAR NO. 81 MAYO COUNTY: Lafayette DRAINAGE BASIN: 09J Suwannee River POPULATION SERVED: 900 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; two wells, supply well yields 340 gpm, standby well yields 200 gpm NUMBER & TYPE OF SERVICES: 1 percent, air conditioning; 281, undifferen- tiated. RATED PLANT CAPACITY : 0.20 mgd PUMPAGEA/ YEAR- 39.1 mg AVERAGE DAILY- 0.11 mg PER CAPITAL USE-119 gpd FINISHED-WATER STORAGE: Elevated tank, 0.18 mg TREATMENT: Aeration, chlorination, stabilization TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/irregularly SEWAGE DISCHARGE: Individual septic tanks SEWAGE TREATMENT: None. WASTE DISCHARGED TO: Ground REMARKS: Private system acquired by city before 1939 consisted of a 120-ft well drilled before 1910 and a 240-ft well drilled before 1920. These wells were abandoned. The present supply well was drilled in 1969, and the standby well in 1939. Water from the main well is of good quality; water from the standby well is high in "sulfur" (hydrogen sulfide) and iron. The city does not plan to expand the system. Average daily pumpage increased from 0.06 mgd in 1956 to 0.11 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Standby Well Silica (SiO2) Calcium (Cai Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (S04) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NOP) Hardness as CaCO3 6.1 21 6.6 3.1 .3 86 8.4 5.0 .1 4.0 .01 80 a Highest months June, August, 0.15 0.08 mg. COLLECTION DATE: 1-26-71 Noncarbonate hard- ness as CaCO 9 Alkalinity as CaC03 71 Strontium (Sr) .05 Specific conduct- ance imicromhos at 25 C) 181 Dissolved solid (resi- due at 180C) 116 Temperature (0C) 22 Color (Pt-Co units) 0 pH (units) 8.2 mg; lowest months December, January, BUREAU OF GEOLOGY MONTICELLO COUNTY: Jefferson DRAINAGE BASIN: 11A Aucilla River POPULATION SERVED: 2,700 DW P OF SPPY OR YTEM distribution system, city; wells and pumps, OWNERSHIP OF SUPPLY OR SYSTEM: Florida Power Corp. SOURCE OF WATER: Ground.water, Floridan aquifer; three wells, about 350 feet deep; main well yields 800 gpm, two standby wells yield 350 gpm each. NUMBER & TYPE OF SERVICES: 970 undifferentiated R- 970 undiff ANT CAPACITY: 0.80 mgd PUMPAGE-/ YEAR- 132 mg AVERAGE DAILY- 0.36 daily PER CAPITAL USE-134 gpd FINISHED-WATER STORAGE: Elevated tank, 0.15 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Chemical/monthly SEWAGE DISCHARGE: 0.18 mgd SEWAGE TREATMENT: Primary, secondary (trickling filter), chlorination WASTE DISCHARGED TO: Wolf Creek, Aucilla River REMARKS: The city water supply started in 1906,when the Florida Power Corp under the terms of a 99-year contract drilled a 400-ft well to furnish water to the city. Additional wells were drilled in 1926, 1927, and a 350-ft well in 1954. The two older wells are used as standby. No water problems exist. Water is of good quality and does not require treatment. Excessive iron in water has been reported. There are no plans for expan- sion of water supply and sewerage systems. Average daily pumpage in- creased from 0.30 mgd in 1956 to 0.36 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey COLLECTION DATE: SAMPLING POINT: Well at city barn, Monticello 12-1-70 Silica (SiO2) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 13 46 6.7 3.2 .4 168 1.6 6.0 .0 .0 .01 143 Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) a Highest month May, 17 mg; lowest month January, 7 mg. 5 138 .14 290 174 21 0 7.9 INFORMATION CIRCULAR NO. 81 PALATKA COUNTY: Putnam DRAINAGE BASIN: 09E St. Johns River POPULATION SERVED: 12,000 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; four wells, about 400 feet deep; yield 40 to 60 gpm flowing NUMBER & TYPE OF SERVICES: 380, commercial; 3,420, domestic a/ RATED PLANT CAPACITY: 3.5 mgd PUMPAGE-/ YEAR-807 mg AVERAGE DAILY- 2.21 mg PER CAPITAL USE- 184 gpd FINISHED-WATER STORAGE: 1.3 mg TREATMENT: Aeration, chlorination, filtration, stabilization, flouridation TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/annually SEWAGE DISCHARGE: 0.06 mgd (plant capacity 2.5 mgd) SEWAGE TREATMENT: Primary WASTE DISCHARGED TO: St. Johns River REMARKS: Emergency source of water available from the spring-fed Ravine Gardens reservoir. Aeration process reduces current plant capacity to about 0.06 mgd. A secondary sewage-treatment plant is planned. Average daily pumpage increased from 1.35 mRd in 1956 to 2.21 mgd in 1970. Bermes and others (1963), Leve (1958), Snell and Anderson (1970). CHEMICAL ANALYSIS (milligrams per liter. except as indicated) Water: Raw ANALYSIS BY: Florida State SAMPLING POINT: Well 5 Silica (SiO2) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 Hydrogen Sulfide (H2S) Bd of Health COLLECTION DATE : 11-7-67 Noncarbonate hard- ness as CaCO Alkalinity'as aaCO3 Strontium (Sr) Specific conduct- ance (micromhos at 250C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) 270 Trace a Highest month May, 81 mg; lowest month February, 51 mg; city supplies water to Junior College, College Park, and Rolling Hills. 531- 5 7.5 ,Ra BUREAU OF GEOLOGY PERRY COUNTY: Taylor POPULATION SERVED: 9,580 DRAINAGE BASIN: 09K Coastal area between Aucilla and Suwannee Rivers OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; three wells, 80 to 500 feet deep; yields 450, 750 and 1,000 gpm NUMBER & TYPE OF SERVICES: 2,650, undifferentiated RATED PLANT CAPACITY : 1.50 mgd PUMPAGE a YEAR- 396.5 mg AVERAGE DAILY- 1.08 mg PER CAPITAL USE- 112 gpd FINISHED-WATER STORAGE: Elevated tanks, underground tanks, 0.33 mg TREATMENT: Aeration, chlorination, filtration TYPE/FREQUENgY OF ANALYSIS: Bacteriological/monthly; chemical/irregularly SEWAGE DISCHARGE: 1.02 mgd (plant capacity 3.0 mgd) SEWAGE TREATMENT: Primary, secondary (trickling filter), secondary settling, chlorination WASTE DISCHARGED TO: Pimple and Spring Creeks REMARKS: Water is slightly colored and very hard. Capacity of the system limited by low filtration rate in the treatment plant. A new sewage- treatment plant will be built within the next few years. Average daily pumpage increased from 0.61 mgd in 1956 to 1.08 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 3 Silica (SiO) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (804) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO?) Hardness as CaCO3 7.4 52 13 4.1 1.0 220 6.4 20 .3 .6 .01 183 COLLECTION DATE : 1-26-71 Noncarbonate hard- ness as CaCO Alkalinity as 2aC03 1 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) 3 Dissolved solid (resi- due at 1800C) 2 Temperature (C) Color (Pt-Co units) pH (units) a City supplies water to subdivisions adjacent to city boundary. Highest month June, 47 mg; lowest month February, 26 mg. 0 87 74 20 22 0 8.4 INFORMATION CIRCULAR NO. 81 67 QUINCY COUNTY: Gadsden POPULATION SERVED: 10,100 DRAINAGE BASIN: 11C Ochlockonee River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Surface water (Quincy Creek), 90 percent; ground water (Floridan aquifer) 10 percent; three wells, only one in use; yield 325 gpm NUMBER & TYPE OF SERVICES: 2,770, undifferentiated a/ RATED PLANT CAPACITY : 1.5 mgd PUMPAGE YEAR- 478 mg AVERAGE DAILY- 1.3 mg PER CAPITAL USE- 130 gpd FINISHED-WATER STORAGE: Elevated tanks, concrete and steel reservoirs; 1.60 mg TREATMENT: Aeration, chlorination, pH control; coagulation, filtration TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/irregularly SEWAGE DISCHARGE.: 0.93 mgd (plant capacity 1.5 mgd) SEWAGE TREATMENT: Primary, secondary (trickle filter), activated sludge, chlorination WASTE DISCHARGED TO: Quincy Creek REMARKS: Average daily pumpage increased from 0.70 mgd in 1956 to 1.3 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey COLLECTION DATE : 8-6-70 SAMPLING POINT: Raw water plant (surface water) Silica (SiO2) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (S04) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 6.0 4.4 1.3 3.2 .6 16 .2 5.9 .2 .3 .01 17 Noncarbonate hard- ness as CaCO Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) 4 .05 48 38 26.8 5 6.6 a Highest month, 52 mg; lowest month, 31 mg; city supplies water to several contiguous areas. 68 BUREAU OF GEOLOGY ST. AUGUSTINE COUNTY: St. Johns P~RILATION SERVED: 12,352 DRAINAGE BASIN: 09F Coastal area between St. Johns River and Turkey Creek OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water ("shallow sand aquifer") 50 percent, surface water (infiltration gallery) 50 percent. Two well fields. NUMBER & TYPE OF SERVICES: 5,200, undifferentiated a/ RATED PLANT CAPACITY : 5.0 mgd PUMPAGE- YEAR- 684.1 mg AVERAGE DAILY- 1.90 mg PER CAPITAL USE-152 gpd FINISHED-WATER STORAGE: Three elevated tanks, one ground storage tank, 1.6 mg TREATMENTS/ TYPE/FREQUhNCY OF ANALYSIS: Bacteriological/daily; chemical/periodic SEWAGE DISCHARGE: 0.36 mgd SEWAGE TREATMENT: Primary WASTE DISCHARGED TO: San Sebastian River REMARKS/ Well field southwest of city, in service 1927. Fourteen wells, 90 feet deep and tapping coquina, are in use. Well field northwest of city, in service,1954. Includes 6 wells about 55 feet deep. Infiltration gal- lery, in service 1963; periodically supplements yield from wells. Water from gallery has high carbonate hardness. Algal blooms have occurred dur- ing low water. System seems adequate for immediate future. Average daily pumpage increased from 1.50 mgd in 1956 to 1.90 mgd in 1970; filter system limits treatment-plant capacity to about 4 mgd. CHEMICAL ANALYSIS (milligrams per lit ANALYSIS BPOYI S. Geological Survey SAMPLING PO;a& :er, except as indicated) Water: COLLECTION DATE: 8-5-71 Silica (SiO2) Calcium (Cai Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO2) Hardness as CaCO3 23 116 63 200 5.8 168 332 360 Noncarbonate hard- ness as CaCO Alkalinity as CaC03 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) 556 a Highest month August, 69 mg; lowest month February, 43 mg; city supplies water to beach communities through the Anastasia Sanitary District. (See fig. 12). b Treatment consists of chlorination, softening, coagulation, flocculation, filtration, carbonation, taste and odor control, algae control c References: Bermes and others (1963), Tarver (1958) 418 138 6.2 2,010 1,320 24 5 7.2 ~ INFORMATION CIRCULAR NO. 81 Figure 12. Areas supplied water by the city of St. Augustine. BUREAU OF GEOLOGY STARKE COUNTY: Bradford DRAINAGE BASIN: 09J Suwannee River POPULATION SERVED: 5,500 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; three wells, 503 to 580 feet deep NUMBER & TYPE OF SERVICES: 2,000, undifferentiated RATED PLANT CAPACITY: 3.0 mgd PUMPAGE YEAR- 245 mg AVERAGE DAILY- 0.6 mg PER CAPITAL USE-120 gpd FINISHED-WATER STORAGE: Elevated tanks 0.25 mg TREATMENT: Softening, chlorination, stabilization TYPE/FREQUENCY OF ANALYSIS: Chemical/intermittent SEWAGE DISCHARGE: 0.6 mgd SEWAGE TREATMENT: Secondary, chlorination WASTE DISCHARGED TO: Alligator Creek to Rowell Lake REMARKS: The water-supply system, completed in 1960, is adequate to meet foreseeable demand. Average daily pumpage increased from 0.42 mgd in 1956 to 0.60 mgd in 1970. Clark and others (1962, 1963, 1964a, 1964b). CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: Florida State Bd of Health COLLECTION DATE : 3-15-68 SAMPLING POINT: - Silica (SiO ) Calcium (Cai Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO2) Hardness as CaCO3 Iron (Fe) 50 19 226 410 Noncarbonate hard- ness as CaCO Alkalinity as caCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) 206 21 241 5 7.2 INFORMATION CIRCULAR NO. 81 71 TALLAHASSEE COUNTY: Leon POPULATION SERVED: 77,700 DRAINAGE BASIN: 11B Coastal area between Aucilla and Ochlockonee Rivers OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; 13 wells 250 to 450 feet deep; yields 1,500 to 3,400 gpm NUMBER & TYPE OF SERVICES: One percent, air conditioning; 23,134 undifferen- tiated RATED PLANT CAPACITY : 33.6 mgd PUMPAGE- YEAR-4,393.34 mg AVERAGE DAILY-12.0 mg PER CAPITAL USE-155 gpd FINISHED-WATER STORAGE: Three elevated tanks, 1.5 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/weekly; chemical/irregularly SEWAGE DISCHARGE: 8.1 mgd (4 plants) SEWAGE TREATMENT: Primary, secondary (high rate trickling filter, activated sludge), secondary settling, chlorination WASTE DISCHARGED TO: Lake Munsen (2 plants); irrigation (1 plant); and lagoon (1 plant) REMARKS: The capacity of the water-supply system is adequate to meet future demand; no expansion is planned.beyond completion of two additional wells in 1971. Average daily pumpage increased from 5.59 mgd in 1956 to 12.04 mgd in 1970. Total yearly pumpage, 1933-1970, is shown on figure 13. Hendry and Sproul (1966). CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 3 Silica (SiO2) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO2) Hardness as CaCO3 14 42 10 2.9 .4 170 3.2 6.0 .0 .0 .01 146 a Highest month May, 519 mg; water to Woodville. COLLECTION DATE : 12-31-70 Noncarbonate hard- ness as CaCO Alkalinity as caC03 Strontium (Sr) Specific conduct- ance omicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) lowest month December, 295 mg; city supplies 7 139 .12 290 171 21 0 7.8 Figure 13. Total yearly pumpage, city of Tallahassee. 4600 4200 3800 3400 3000 2600 2200 1800 600 200 INFORMATION CIRCULAR NO. 81 TRENTON COUNTY: Gilchrist DRAINAGE BASIN: 09J Suwannee River POPULATION SERVED: 1,200 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; three wells; two, 92 and 98 feet deep, yield 250 gpm; one, deeper,.yields 320 gpm NUMBER & TYPE OF SERVICES: 63, commercial; 321, domestic RATED PLANT CAPACITY : 0.40 mgd PUMPAGE YEAR- 54.8 mg AVERAGE DAILY- 0.15 mg PER CAPITAL USE- 120 gpd FINISHED-WATER STORAGE: Elevated tank, 0.08 mg TREATMENT: None TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/irregularly SEWAGE DISCHARGE: 0.08 mg SEWAGE TREATMENT: Aeration, secondary WASTE DISCHARGED TO: Lagoons REMARKS: Water supply adequate for foreseeable needs. Average daily pump- age increased from 0.10 mgd in 1956 to 0.15 mgd in 1970. Floridan aquifer generally less than 50 feet below land surface. Permeability of aquifer is high. Pumpage from the aquifer in Gilchrist County estimated at 3 mgd. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: -- Silica (SiO2) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO,) Nitrite (NO2) Hardness as CaCO3 Carbonate (C03) 5.7 70 4.0 3.8 .2 218 5.6 10 COLLECTION DATE : 1-11-71 Noncarbonate hard- ness as CaCO 6 Alkalinity as aaC03 185 Strontium (Sr) .08 Specific conduct- ance (micromhos at 25 C) 376 Dissolved solid (resi- due at 1800C) 224 Temperature (0C) 20 Color (Pt-Co units) 0 pH (units) 8.5 74 BUREAU OF GEOLOGY CENTRAL FLORIDA The central Florida section includes 17 counties and covers 14,300 square miles. The extent of this section and locations of municipalities for which water-use data are given are shown on figure 14. The principal sources of municipal ground-water supplies are the Floridan aquifer, the shallow-sand aquifer, and the Pleistocene-Miocene aquifer. Surface-water supplies are pumped from the Hillsborough River and Lake Washington. During 1970, 67,665.81 million gallons was pumped from the Floridan aquifer and 2,245.06 million gallons from the shallow-sand aquifer. Surface water sources, rivers and lakes, supplied 19,083.20 million gallons or 21.7 percent of the water used for municipal supply. BEACH MAR ION gOCALA S310 MILES EOLA P O L K MBARTOW *LAKE WALES LAROO BUREAU OF GEOLOGY AUBURNDALE COUNTY: Polk DRAINAGE BASIN: 10D Peace River POPULATION SERVED: 14,000 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; five wells, of which two are on standby, 155 to 633 feet deep; yield of one well is 1,140 gpm NUMBER & TYPE OF SERVICES: 4,000, undifferentiated PM / RATED PLANT CAPACITY : 5.0 mgd PUMPAGE YEAR- 510 mg AVERAGE DAILY- 1.4 mg PER CAPITAL USE-100 gpd FINISHED-WATER STORAGE: Elevated tanks and ground storage, 0.46 mg TREATMENT: Aeration, chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/annually SEWAGE DISCHARGE: 0.3 mgd SEWAGE TREATMENT: Trickling filter WASTE DISCHARGED TO: Lake Hancock REMARKS: Average daily pumpage increased from 0.75 mgd in 1956 to 1.4 mgd in 1970. Stewart (1966) CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Water Plant Well Silica (SiO2) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (N02) Hardness as CaCO3 13 32 6.5 6.8 .8 124 4.4 9.0 COLLECTION DATE: 8-5-71 Noncarbonate hard- ness as CaCO Alkalinity as caC03 Strontium (Sr) Specific conduct- ance (micromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) a City supplies water to adjacent areas. 5 102 .08 226 138 26 0 6.7 INFORMATION CIRCULAR NO. 81 BARTOW COUNTY: Polk DRAINAGE BASIN: 10D Peace River POPULATION SERVED: 15,000 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; 10 wells, 285 to 765 feet deep; yield 350 to 2,300 gpm NUMBER & TYPE OF SERVICES: 3,801, domestic; 565, commercial a RATED PLANT CAPACITY : 4.1 mgd PUMPAGE-a YEAR-865.00 mg AVERAGE DAILY- 2.37 mg PER CAPITAL USE- 158 gpd FINISHED-WATER STORAGE: Elevated storage and ground storage, 0.9 mg TREATMENT: Aeration, chlorination, filtration TYPE/FREQUENCY OF ANALYSIS: Bacteriological/3 times month; chemical/irregular SEWAGE DISCHARGE: 1.03 mgd (plant capacity 2.25 mgd) SEWAGE TREATMENT: Primary, secondary filtration, chlorination WASTE DISCHARGED TO: Peace River REMARKS: Excessive hydrogen sulfide in water. Declining water levels necessitated lowering of pumps in several wells. Present plans include adding a 250,000-gallon elevated storage tank and increasing the capacity of the water-treatment plant. Average daily pumpage increased from 1.04 mgd in 1958 to 2.37 mgd in 1970. Stewart (1966). CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 1 Silica (SiO) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO2) Hardness as CaCO3 16 97 25 10 1.2 180 200 13 COLLECTION DATE : 8-4-71 Noncarbonate hard- ness as CaCO Alkalinity as 2aC03 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (oC) Color (Pt-Co units) pH (units) a Highest month May, 122 mg; lowest month January, 52 mg. City supplies water to airport subdivision ard other areas adjacent to city. 201 148 2.7 673 473 25 0 7.0 BUREAU OF GEOLOGY BRANDON COUNTY: Hillsborough POPULATION SERVED: 10,000 DRAINAGE BASIN: 10H Hillsborough River and coastal area north of Alafia River OWNERSHIP OF SUPPLY OR SYSTEM: Brandon Water and Sewer Co SOURCE OF WATER: Ground water, Floridan aquifer; 8 wells NUMBER & TYPE OF SERVICES: 2,600, domestic; 219, commercial RATED PLANT CAPACITY : 5.5 mgd PUMPAGE/ YEAR- 415.09 mgAVERAGE DAILY- 1.14 mg PER CAPITAL USE-114 gpd FINISHED-WATER STORAGE: 0.1 mg TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/- SEWAGE DISCHARGE: 0.16 mgd SEWAGE TREATMENT: Secondary WASTE DISCHARGED TO: Drainfields REMARKS: Average daily pumpage increased from 0.01 mgd in 1956 to 1.14 mgd in 1970. Menke and others (1961). CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 2 Silica (SiO ) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (S04) Chloride (Cl) Fluoride (F) Nitrate (NO3) 1itrite (NO0) Hardness as CaCO3 12 62 5.0 5.8 .5 134 52 11 .2 9.3 .01 176 COLLECTION DATE: 6- Noncarbonate hard- ness as CaCO Alkalinity as &aCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (oC) Color (Pt-Co units) pH (units) -22-71 360 224 25.5 5 6.7 a Highest month May, 69 mg; lowest month January, 21 mg; city also supplies water to Seffner, Valrico, Temple Terrace INFORMATION CIRCULAR NO. 81 BROOKSVILLE COUNTY: Hernando POPULATION SERVED: 5,000 DRAINAGE BASIN: 09G Withlacoochee River 79 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; three wells, 251 to 757 feet deep, yield of one well, 220 gpm NUMBER & TYPE OF SERVICES: 1,343, domestic; 355, commercial RATED PLANT CAPACITY: 2.5 mgd PUMPAGE a/ YEAR- 202.15 mgAVERAGE DAILY- 0.55 mg PER CAPITAL USE-110 gpd FINISHED-WATER STORAGE: Elevated tank and ground storage, 0.625 mg TREATMENT: Aeration, chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/month; chemical/every 5 years SEWAGE DISCHARGE: 0.14 mgd SEWAGE TREATMENT: Extended aeration, trickling filter WASTE DISCHARGED TO: Man-made lake REMARKS: Average daily pumpage increased from 0.28 mgd in 1956 to 0.55 mgd in 1970. Cherry and others (1970), Wetterhall (1964). CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 2 Silica (SiO2) Calcium (CaS Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (S04) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NOs Hardness as CaCO3 5.4 .3 228 11 9.0 .2 .9 .00 193 COLLECTION DATE: 9 Noncarbonate hard- ness as CaCO Alkalinity as aC03 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (oC) Color (Pt-Co units) pH (units) a Highest month July, 1.44 mg; lowest month, January 1.00 mg. -1-71 389 226 0 6.5 BUREAU OF GEOLOGY BUSBNELL COUNTY: Sumter POPULATION SERVED: 700 DRAINAGE BASIN: 09G Withlacoochee River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; two wells, 580 and 693 feet deep. NUMBER & TYPE OF SERVICES: 331, undifferentiated RATED PLANT CAPACITY: 1.00 mgd PUMPAGEa' YEAR- 44 mg AVERAGE DAILY- 0.12 mg PER CAPITAL USE-172 gpd FINISHED-WATER STORAGE: Elevated storage and ground storage 0.09 mg TREATMENT: Aeration, chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: SEWAGE TREATMENT: Septic Tanks None WASTE DISCHARGED TO: Ground REMARKS: Main problem is prevention of aquifer pollution from surface sources. Pollution is aggravated by high water table, septic tanks, and relatively shallow depth at which the top of the aquifer lies. Average daily pumpage increased from about 0.07 mgd in 1956 to 0.12 mgd in 1970. CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Treated ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Composite Silica (SiO) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO ) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO) Hardness as CaCO3 Noncarbonate hardness as CaCO3 Alkalinity as CaCO3 COLLECTION DATE: 14 Strontium (Sr) 67 Specific conductance 9.0 (micromhos at 250C) 5.7 Dissolved solids (resi- 1.0 due at 1800C) 172 Temperature 40 Color 10 pH .5 Carbonate .0 .01 206 a Highest months April and May, 7.3 mg; lowest months December, January. City also supplies water to areas adjacent to city. 1-6-71 .86 428 258 23 0 8.6 12 INFORMATION CIRCULAR NO. 81 CASSELBERRY COUNTY: Seminole DRAINAGE BASIN: 09E St. Johns River POPULATION SERVED: 9,450 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal and So. Seminole Utilities Co SOURCE OF WATER: Ground water, Floridan aquifer; 3 wells, 265 to 500 feet deep; yield 600 to 750 gpm NUMBER & TYPE OF SERVICES: 2,700, undifferentiated a,/ RATED PLANT CAPACITY : 2.8 mgd PUMPAGE- YEAR- 358 mg AVERAGE DAILY- 0.98 mg PER CAPITAL USE-104 gpd FINISHED-WATER STORAGE: 0.26 mg TREATMENT: Aeration, chlorination TYPE/FREQUENCY OF ANALYSIS: Chemical/irregularly SEWAGE DISCHARGE: 0.5 mgd (plant capacity 0.9 mg) SEWAGE TREATMENT: Aeration, trickling filter, chlorination, polishing pond WASTE DISCHARGED TO: Gee Creek REMARKS: Major problems are the danger of upward migration of saline water from the lower part to the upper part of the aquifer, as water in the upper part of the aquifer is withdrawn. Average daily pumpage from 0.17 mgd in 1956 to 0.98 mgd in 1970. Stringfield (1934), Barraclough (1962). CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey COLLECTION DATE: 2-25-71 SAMPLING POINT: Silica (SiO) Calcium (CaJ Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (804) Chloride (Cl) Fluoride (F) Nitrate (NO ) Nitrite (NO) Hardness as CaCO3 11 42 12 5.4 1.0 188 4.0 10 .2 .8 .01 155 Noncarbonate hard- ness as CaCO Alkalinity as 2aC03 Strontium (Sr) Specific conduct- ance mmicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (oC) Color (Pt-Co units) pH (units) a Highest month May, 48 mg; lowest month March, 18 mg; also supply water to Howell Park. 1 154 .09 BUREAU OF GEOLOGY CLEARWATER COUNTY: Pinellas POPULATION SERVED: 52.,047 DRAINAGE BASIN: 10J Coastal area between Hillsborough River and Withla- coochee River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal and Pinellas County Water System SOURCE OF WATER: Ground water, Floridan aquifer; 19 wells, 157 to 360 feet deep; yield 200 to 600 gpm NUMBER & TYPE OF SERVICES: 23,815, undifferentiated A/ RATED PLANT CAPACITY : 14 mgd PUMPAGE YEAR- 966 mg AVERAGE DAILY- 2.60 mg PER CAPITAL USE/173 gpd FINISHED-WATER STORAGE: Elevated tanks and ground storage, 3.0 mg TREATMENT: Aeration, chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/yearly SEWAGE DISCHARGE: 7.1 mg (three plants) SEWAGE TREATMENT: Activated sludge WASTE DISCHARGED TO: Tampa Bay and Gulf of Mexico REMARKS: Heath and Smith (1954). CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 18 Silica (Si0O) Calcium (Cal Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO 3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO2) Hardness as CaCO3 17 62 6.3 23 1.0 170 4.4 63 .4 2.2 .00 181 COLLECTION DATE : 9-1-71 Noncarbonate hard- ness as CaCO 41 Alkalinity as CaCO3 139 Strontium (Sr) .19 Specific conduct- ance Smicromhos at 25 C) 485 Dissolved solid (resi- due at 1800C) 314 Temperature (0C) Color (Pt-Co units) 5 pH (units) 6.9 a Highest month May, 149 mg; lowest month February, 58 mg; city purchased an additional 2,320.6 mg from Pinellas County Water System. City also supplies water to some areas adjacent to city. b Computed on basis of combined pumpage of municipal supply system and Pinellas County Water System. INFORMATION CIRCULAR NO. 81 COCOA COUNTY: Brevard POPULATION SERVED: 100,000 DRAINAGE BASIN: 09E St. Johns River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; 22 wells of which 18 are in use NUMBER & TYPE OF SERVICES: 21,025, undifferentiated RATED PLANT CAPACITY: 40 mgd PUMPAGE a/YEAR-5,595.6 mg AVERAGE DAILY- 15.3 mg PER CAPITAL USE-153 gpd FINISHED-WATER STORAGE: 15.8 mg TREATMENT: Aeration, chlorination, softening TYPE/FREQUENCY OF ANALYSIS: Bacteriological/biweekly; chemical/hourly SEWAGE DISCHARGE: 1.2 mgd SEWAGE TREATMENT: Primary, trickling filter, chlorination, sludge thick- ening and digestion WASTE DISCHARGED TO: Indian River REMARKS b All city wells except 1 tap the Floridan aquifer; 1 well taps the shallow aquifer. Chloride content of water from Floridan ranges from 30-560 mg/l. Chloride in water from shallow aquifer about 20 mg/l. Major problem is chloride buildup in the well field. Monitor well is sampled regularly. Outlook shows cause for concern if chloride content continues to increase at present rate. Modifying pumping rates and durations may slow the rise in chloride. Avg. daily pumpage increased from 5.59 mgd in 1957 to 15.32 mgd in 1970. Yearly pumpage is shown on figure 15. CHEMICAL ANALYSES (milligrams per liter, except as indicated) TYPE OF WATER: RAW (R) TREATED (T) ANALYSIS BY: (R) U.S. Geological Survey (T)-1 City of Cocoa COLLECTION DATE: (R) 4-30-70 (T) 9-71 SAMPLING POINT: (R) Well 14 (T) -- Raw TreaLed Raw Treated Silica (SiO ) 23 Calcium (Ca3 87 Magnesium (Mg) 11 Sodium (Na) 30 Potassium (K) 1.9 Bicarbonate (HCCO)200 Sulfate (SO ) 80 Chloride (Ci) 39 Fluoride (F) 0.2 Nitrate (NO,) 1.7 Nitrite (NO ) Hardness as CaCO 264 Noncarbonate hard- ness as CaCO 86 Alkalinity as CaCO3 Strontium (Sr) 1.2 Specific conduct- ance (micromhos at 25C) 622 Dissolved solid (resi- due at 1800C) Temperature (OC) Color (Pt-Co units) pH (units) Carbonate (CO ) Calcium Hardness as Cat 0.86 90(total) 34 56 381 25 10 8.3 8 O3 5 8.6 56 a Highest month May, 597 mg; lowest month November, 389 mg; city also supplies water to Cape Kennedy, Cocoa Beach, Merritt Island, Rock- ledge. b Lichtler and others (1964), Lichtler and Joyner (1966), Lichtler and others (1968), U.S. Geological Sur- vey (1970). c Source of analysis, Florida State Board of Health. 8000 7000- 6000 z -J 0 4000 I o 3J 000 J J 2000 | a. 1000 - 1950 1955 1960 1965 1970 1975 1980 Figure 15. Total yearly pumpage, city of Cocoa. INFORMATION CIRCULAR NO. 81 85 DADE CITY COUNTY: Pasco POPULATION SERVED: 8,500 DRAINAGE BASIN: 09G Withlacoochee River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aqnLfer; 4 wells, 116 to 200 feet deep; yield, 500 to 850 gpm NUMBER & TYPE OF SERVICES: 2,250, domestic; 150, commercial RATED PLANT CAPACITY : 4. mgd PUMPAGE-' YEAR- 310.5 mg AVERAGE DAILY- 0.85 mg PER CAPITAL USE-100 gpd FINISHED-WATER STORAGE: Elevated tank and standpipe, 0.43 mg TREATMENT: None TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 0.40 mgd SEWAGE TREATMENT: Primary and secondary WASTE DISCHARGED TO: Canals to Withlacoochee River REMARKS: Average daily pumpage has increased from 0.68 mgd in 1957 to 0.85 mgd in 1970. Total yearly pumpage is shown on figure 16. Cherry and others (1970). CHEMICAL ANALYSIS (milligrams per liter, except -as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 1 Silica (Si0O) 9. Calcium (CaJ 44 Magnesium (Mg) 4 Sodium (Na) 6. Potassium (K) Bicarbonate (HCO3) 144 Sulfate (SO4) 14 Chloride (Cl) 8 Fluoride (F) Nitrate (NO ) 3, Nitrite (NO2) Hardness as CaCO3 130 .0 .7 .0 .4 .0 .0 .6 .01 COLLECTION DATE : 8-11-71 Noncarbonate hard- ness as CaCO Alkalinity- as aaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (oC) Color (Pt-Co units) pH (units) a Highest month May, 41 mg; lowest month February, 20 mg; city supplies water to areas adjacent to city. 12 118 .22 276 164 23.5 0 7.1 1965 1970 Fiurxe 16. Total yearly pumpage, Dade City. 350 300 250 200 1960 INFORMATION CIRCULAR NO. 81 87 DAYTONA BEACH COUNTY: Volusia POPULATION SERVED: 56,606 DRAINAGE BASIN: 09F Coastal area between St. Johns River and Turkey Creek OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; 16 wells, 160 to 485 feet deep. Yield 250 to 1,500 gpm. NUMBER & TYPE OF SERVICES: 16,850, undifferentiated RATED PLANT CAPACITY: 10.8 mgd pUMPAGEal YEAR-3,498 mg AVERAGE DAILY- 9.58 mg PER CAPITAL USE-170 gpd FINISHED-WATER STORAGE: Elevated tanks and ground storage, 5.7 mg TREATMENT: Aeration, chlorination, softening, coagulation, filtration, fluoridation TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/daily SEWAGE DISCHARGE: SEWAGE TREATMENT: 11 mg-s Contact stabilization, digestion WASTE DISCHARGED TO: Halifax River REMARKS: Salt-water encroachment in the 1950's caused abandonment of the three original easternmost well fields. Three well fields currently in operation include: Highway 92 west well field (5 wells); Airport well field (7 wells) and Tuscawilla Park well field (4 wells). Two additional wells are planned west of U. S. Highway 1-95. Average daily pumpage in- creased from 5.00 mgd in 1956 to 9.58 mgd in 1970. Knochenmus and Beard (1971), Snell and Anderson (1970), Wyrick (1960). CHEMICAL ANALYSES (milligrams per liter, except as indicated) TYPE OF WATER: RAW (R) TREATED (T) ANALYSIS BY: (R) U. S. Geological Survey (T) Fla. State Board of Health COLLECTION DATE: (R) 6-9-71 (T) 3-4-69 SAMPLING POINT: (R) Well 44 (T) Tap at sink in laboratory Silica (Si02) Hardness as CaCO3 Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Iron (Fe) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO ) 18 296 105 8.0 24 1.2 352 .4 .21 41 .3 ABS 1.1 .01 RAW Noncarbonate hardness as CaCO3 Alkalinity as CaCO3 Strontium (Sr) Specific conductance (micromhos at 250C) Dissolved solids (residue at 1800C) Temperature (oC) Color pH a Highest month May, 366 mg; lowest month February, 192 mg. plies water to South Daytona, Daytona Beach Shores. City also sup- b Sewage discharge exceeds pumpage because of ground-water seepage 650 399 22.5 30 7.5 .48 88 BUREAU OF GEOLOGY DAYTONA BEACH CHEMICAL ANALYSES (continued) TREATED Calcium (Ca) 18 Magnesium (Mg) 7 Bicarbonate (HCO3) 61 Sulfate (SO ) <10 Chloride (CI) 67 Chlorine, combined C12 Hydroxide as CaCO 0 Bicarbonate as CaCO3 44 Carbonate as CaCO3 6 Iron (Fe), Total field determ. .1 Total Hardness as CaCO3 76 Noncarbonate Hardness as CaCO3 26 Alkalinity as CaCO3 50 Total dissolved solids at 1030C 177 Saturation Index +0.4 Color 5 pH 9.0 pHs 8.6 Stability Index (2 pHs-pH) 8.2 Appearance Index Clear Odor None INFORMATION CIRCULAR NO. 81 DE LAND COUNTY: Volusia DRAINAGE BASIN: 09E St. Johns River POPULATION SERVED: 16,691 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; 7 wells, 275 to 511 feet deep, yield (2 wells) 1,950 and 2,000 gpm NUMBER & TYPE OF SERVICES: 6,000 undifferentiated RATED PLANT CAPACITY: 12 mgd PUMPAGEa/ YEAR-895.82 mg AVERAGE DAILY- 2.45 mg PER CAPITAL USE-147 gpd FINISHED-WATER STORAGE: Elevated tanks, 0.900 mg TREATMENT: Chlorination, softening, stabilization TYPE/FREQUENCY OF ANALYSIS: Bacteriological/weekly; chemical/intermittently SEWAGE DISCHARGE: 0.85 mgd SEWAGE TREATMENT: Activated sludge WASTE DISCHARGED TO: St. Johns River REMARKS: Main problem involves selection of sites where wells will yield good quality water in an area undergoing salt-water encroachment and where water high in iron is common, particularly in eastern DeLand. Av- erage daily pumpage increased from 1.60 mgd in 1956 to 2.45 mgd in 1970. Wyrick (1960), Snell and Anderson (1910), Knochenmus and Beard (1971). CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 4 Silica (SiO2) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO,) Nitrite (NO2) Hardness as CaCO3 Iron (Fe) dissolved 80 49 7.0 11 1.8 170 14 26 .2 .5 .01 151 .03 a Highest month May, 106 mg; to areas adjacent to city. COLLECTION DATE: 6-8-71 Noncarbonate hard- ness as CaCO Alkalinity as aaCO3 Strontium (Sr) Specific conduct- ance (micromhos at 250C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) lowest month, 55 mg; city also supplies water 12 139 .21 338 274 23 5 7.2 COUNTY: Pinellas DRAINAGE BASIN: 10J Rivers BUREAU OF GEOLOGY DUNEDIN POPULATION SERVED: 17,639 Coastal area between Hillsborough and Withlacoochee OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; 14 wells, 96 to 332 feet deep; yield 500 gpm NUMBER & TYPE OF SERVICES: 6,000, undifferentiated P RATED PLANT CAPACITY : 6.15 mgd PUMPAGE- YEAR-908.82 mg AVERAGE DAILY- 2.40 mg PER CAPITAL USE-130 gpd FINISHED-WATER STORAGE: TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/yearly SEWAGE DISCHARGE: 1.32 mg (capacity of 2 plants, 2.05 mg) SEWAGE TREATMENT: Secondary, activated sludge WASTE DISCHARGED TO: St. Joseph Sound (Gulf of Mexico) REMARKS: Wells subject to salt-water encroachment if overpumped. Average daily pumpage increased from 0.85 mgd in 1956 to 2.40 mgd in 1970. Heath and Smith (1954). CHEMICAL ANALYSIS (milligrams per liter, except-as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 13 Silica (SiO5) Calcium (Ca) Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO2) Hardness as CaCO3 3.9 214 COLLECTION DATE: Noncarbonate hard- ness as CaCO Alkalinity as caC03 Strontium (Sr) Specific conduct- ance (micromhos at 250C) Dissolved solid (resi due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) a Highest month May, 125 mg; lowest month March, 59 mg. 9-1-71 60 176 .29 646 L- 378 0 6.5 INFORMATION CIRCULAR NO. 81 EUSTIS COUNTY: Lake DRAINAGE BASIN: 09E St. Johns River POPULATION SERVED: 9,122 OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; 6 wells, 265 to 1,003 feet deep; yield of 2 wells, 1,200 and 1,600 gpm NUMBER & TYPE OF SERVICES: 3,800, undifferentiated RATED PLANT CAPACITY : 8.8 mgd PUMPAGEa/ YEAR- 714 mg AVERAGE DAILY- 1.96 mg PER CAPITAL USE-215 gpd FINISHED-WATER STORAGE: Elevated tanks and ground storage, 0.81 mg TREATMENT: Aeration, chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly SEWAGE DISCHARGE: 0.61 mgd SEWAGE TREATMENT: Secondary, highrate trickling filter WASTE DISCHARGED TO: Trout Lake REMARKS: With recent incorporation of subdivisions into the city, the muni- cipal water system has acquired local private water systems. Average daily pumpage increased from 0.90 mgd in 1956 to 1.96 mgd in 1970. Knochenmus (1971). CHEMICAL ANALYSIS (milligrams per liter, except as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 1 Silica (SiO ) 11 Calcium (Cal 22 Magnesium (Mg) 7.6 Sodium (Na) 4.8 Potassium (K) .8 Bicarbonate (HCO3) 100 Sulfate (S04) 4.4 Chloride (Cl) 7.5 Fluoride (F) .2 Nitrate (NO ) .2 Nitrite (NO2) .00 Hardness as CaCO3 87 Iron (Fe) dissolved .02 COLLECTION DATE: 6-7-71 Noncarbonate hard- ness as CaCO Alkalinity as CaC03 Strontium (Sr) Specific conduct- ance omicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (oC) Color (Pt-Co units) pH (units) a High May, 86 mg; Low February 39 mg; city also serves Three-Lake and Lake Louise subdivisions and areas adjacent to city. 190 110 24 0 7.2 92 BUREAU OF GEOLOGY GULFPORT COUNTY: Pinellas POPULATION SERVED: 9,730 DRAINAGE BASIN: 10J Coastal area between Hillsborough River and Withlacoo- chee River OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer NUMBER & TYPE OF SERVICES: 4,526, undifferentiated RATED PLANT CAPACITY: -- PUMPAGEal YEAR-250.2 mg AVERAGE DAILY- 0.69 mg PER CAPITAL USE- 72 gpd FINISHED-WATER STORAGE:b/ TREATMENT: Chlorination TYPE/FREQUENCY OF ANALYSIS:b/ SEWAGE DISCHARGE: 1.4 mgd, average SEWAGE TREATMENT: Contact stabilization WASTE DISCHARGED TO: St. Petersburg sewage system southwest treatment plant, Boca Ciega Bay REMARKS: Heath and Smith (1954). a High,May, 24 mg; low,January, 19 mg; water is purchased from St. Petersburg. b See under St. Petersburg. INFORMATION CIRCULAR NO. 81 93 HAINES CITY COUNTY: Polk POPULATION SERVED: 13,000 DRAINAGE BASIN: 10D Peace River, 10B Lake Okeechobee and Everglades OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; five wells, 490 to 810 ft. deep; yield 900 to 1,763 gpm NUMBER & TYPE OF SERVICES: 2,938, undifferentiated RATED PLANT CAPACITY : 4.3 md PUMPAGEa/ YEAR-553.69 mg AVERAGE DAILY- 1.52 mg PER CAPITAL USE-117 gpd FINISHED-WATER STORAGE: Elevated storage and ground storage, 1.3 mg TREATMENT: Aeration, chlorination TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/original SEWAGE DISCHARGE: 0.75 mgd SEWAGE TREATMENT: Aeration, trickling filter WASTE DISCHARGED TO: Lake Marion REMARKS: Water system, consisting of one well and small storage tank, acquired by city in 1920 from the Florida Utilities Company. No plans to expand existing plant. Average daily pumpage increased from 0.96 mgd in 1956 to 1.52 mgd in 1970. Stewart (1966). CHEMICAL ANALYSIS (milligrams per liter, except -as indicated) Water: Raw ANALYSIS BY: U. S. SAMPLING POINT: - Silica (SiO ) Calcium (Cai Magnesium (Mg) Sodium (Na) Potassium (K) Bicarbonate (HCO3) Sulfate (SO4) Chloride (Cl) Fluoride (F) Nitrate (NO3) Nitrite (NO) Hardness as CaCO3 Geological Survey COLLECTION DATE: 13 49 6.3 11 1.3 194 .8 13 .2 2.2 .05 a Highest month May, 75 mg; lowest plies water to some adjacent area Noncarbonate hard- ness as CaCO0 Alkalinity as CaCO3 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (oC) Color (Pt-Co units) pH (units) 8-5-71 339 194 25 6.6 month February, 32 mg; city also sup- BUREAU OF GEOLOGY HOLLY HILL COUNTY: Volusia POPULATION SERVED: 8,191 DRAINAGE BASIN: 09F Coastal area between St. Johns River and Turkey Creek OWNERSHIP OF SUPPLY OR SYSTEM: Municipal SOURCE OF WATER: Ground water, Floridan aquifer; 5 wells, 200 feet deep NUMBER & TYPE OF SERVICES: 3,043, undifferentiated RATED PLANT CAPACITY : 1.1 gd PUMPAGE YEAR-264.96 mg AVERAGE DAILY- 0.73 mg PER CAPITAL USE- 90 gpd FINISHED-WATER STORAGE: Elevated tanks, ground storage, 0.38 mg TREATMENTb/ Aeration, chlorination, softening, coagulation, filtration TYPE/FREQUENCY OF ANALYSIS: Bacteriological/monthly; chemical/daily SEWAGE DISCHARGE: 0.5 mgd SEWAGE TREATMENT: Aeration and activated sludge WASTE DISCHARGED TO: Halifax River REMARKS: Well field is 0.3 mile from the Halifax River, a tidal lagoon. To meet the increasing demand, a new well field and water-treatment plant are planned for construction on the site of the present waste treatment plant, 0.5 mile west of the well field and 0.8 mile west of the river. The main problem is salt-water encroachment. Withdrawals are carefully monitored to prevent the spread of encroachment. Average daily pumpage increased 83 percent,from 0.40 mgd in 1956 to 0.73 mgd in 1970. Wyrick (1960), Snell and Anderson (1970), Knochenmus and Beard (1971). CHEMICAL ANALYSIS (milligrams per liter, except*as indicated) Water: Raw ANALYSIS BY: U. S. Geological Survey SAMPLING POINT: Well 1 Silica (SiO0) 22 Calcium (Ca4 103 Magnesium (Mg) 15 Sodium (Na) 41 Potassium (K) 1.6 Bicarbonate (HCO3) 346 Sulfate (SO4) 4.4 Chloride (Cl) 85 Fluoride (F) .4 Nitrate (NO ) 1.6 Nitrite (NO2) .01 Hardness as CaCO3 319 Iron (Fe) dissolved .04 COLLECTION DATE : 6-7-71 Noncarbonate hard- ness as CaCO Alkalinity as CaC03 Strontium (Sr) Specific conduct- ance Smicromhos at 25 C) Dissolved solid (resi- due at 1800C) Temperature (0C) Color (Pt-Co units) pH (units) a Highest month March, 24 mg; lowest month, February, 19 mg. b Treatment also includes flocculation, carbonation, pH control 775 484 22.5 30 7.7 |
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| MILLISECOND | CLASS.METHOD | MESSAGE |
|---|---|---|
| 0 | sobekcm_page_globals.constructor | |
| 0 | sobekcm_page_globals.constructor | Application State validated or built |
| 0 | sobekcm_database.verify_item_lookup_object | |
| 0 | sobekcm_page_globals.constructor | Navigation Object created from URI query string |
| 0 | sobekcm_database.verify_item_lookup_object | |
| 0 | sobekcm_page_globals.display_item | Retrieving item or group information |
| 0 | sobekcm_page_globals.get_entire_collection_hierarchy | Retrieving hierarchy information |
| 0 | sobekcm_assistant.get_entire_collection_hierarchy | |
| 0 | cached_data_manager.retrieve_item_aggregation | |
| 0 | cached_data_manager.retrieve_item_aggregation | Found item aggregation on local cache |
| 0 | item_aggregation_builder.get_item_aggregation | Found 'all' item aggregation in cache |
| 0 | system.web.ui.page.page_load (ufdc.page_load) | |
| 0 | sobekcm_page_globals.constructor.on_page_load | |
| 0 | html_echo_mainwriter.add_style_references | Adding style references to HTML |
| 0 | html_echo_mainwriter.add_text_to_page | Reading the text from the file and echoing back to the output stream |
| 78 | html_echo_mainwriter.add_text_to_page | Finished reading and writing the file |