rh‘namaA; -g..‘»‘m_ - . 42+. *9“:!R,':~€ ' m s glw‘,’ «S23 !.‘x.§-\1R:£d‘t 2 3V 2‘15": V3.35“; ‘1’: 4 an: I EV' 3- -9‘ 9 ‘ ”‘9'" M” 5 ”‘11 fix " f‘f‘\f .. ‘3. 31%;} \ff grin-$3 My :31. 3%; .. .3336: REE. €3.33.) 3:2? 33:23“ gamma :2!” 1.3x? $3”??? #3433 3‘33! “$5333; .5. '3‘ ‘£~ & ‘lilh '5‘ J; 95.61:“ ~‘~. .0“: . 393? TH EBII L I B R .4 13.. Y 3 ‘ . I‘.<11(.‘;:!.~:;m and U 11 i v c may A PROPOSED RECREATIONAL CLASSIFICATION FOR THE LAKES OF JACKSON COUNTY MICHIGAN By Richard N. Horner A THESIS Submitted to the College of Agriculture Michigan State University of Agriculture and Applied Science in partial fulfillment of the requirements for the degree of MASTER OF SCIENCE Department of Resource Development 1959 Richard N. Horner ABSTRACT The intent of this study was to inventory and inves- tigate characteristics of lakes in Jackson County, Michigan in order to classify such lakes for purposes of analysis and planning for recreational use. Many lake classifications have been developed that reflect purely physical, biological, or chemical character- istics of the lake classified. A primary goal of this investigation was to correlate various geographical factors and conditions with evidence of existing lake use obtained from field observations. The observations of overall rec- reational use were limited to certain primary recreational pursuits common to numerous lakes. From an analysis of these factors and the observed intensity of primary recreational uses, criteria were selected that formed the basis for classifying the lakes inventoried into three types as follows: Class I Less than 50% swamp or marsh and sparse to moderate aquatic vegetation in the shoal. Class 11 Greater than 50% swamp or marsh and sparse to moderate aquatic vegetation in the shoal, or Less than 50% swamp or marsh and abun- dant aquatic vegetation in the shoal. Class III Greater than 50% swamp or marsh and abundant aquatic vegetation in the shoal. iii Richard N. Horner ABSTRACT The classification developed reflects the natural character and preSent extent of use or potential use of the lakes inventoried. The Class I lakes typically provide the greatest overall recreational use or potential, while the Class III lakes provide the lowest overall use or potential. The characteristics of Class 11 lakes are intermediate between those of the low and high use classes. The classification developed should prove helpful in planning and zoning studies for any lake and in deter- mining which lakes Offer the greatest potential for future development. ACKNOWLEDGMENT The writer eXpresses appreciation to Dr. Clifford R. Humphrys of the Department of Resource Development, Michigan State University, who provided the incentive for this study. Acknowledgment is also due to Dr. Robert C. Ball of the Department of Fisheries and Wildlife, Michigan State University, for helpful criticism, and to the many individuals who, in the course of the field work, allowed access to their private property. II. III. IV. V. TABLE OF CONTENTS THE PROBLEM . . . . . . . Statement of the Problem Justification . . . . . Limitations of the Study Definition of Terms STATUS OF THE PROBLEM . . Review of Literature . . Statement of Purpose METHODOLOGY . . . . . . . Sources of Data . . . Inventory Procedure Treatment of Findings REPORT OF THE STUDY Scope . . . . . . . Area Description . . . Data Presentation . . . Analysis of Data . . Classification Criteria Classification Use . . SIJLIMA RY O 0 O O O O O O O BIBLImRAPI-H O O O O O O O O C 0 APPENDIX A. APPENDIX B. vi Lake Inventory Schedule Maps and Additional Tables ‘DCDGIUN 10 10 10 11 12 12 12 22 39 43 45 48 49 54 57 LIST OF TABLES TABLE PAGE I. Lakes Inventoried and Classified . . . . . . . 13 11. Existing Lake Development . . . . . . . . . . . 23 III. Lake Area in Acres . . . . . . . . . . . . . . 24 IV. Maximum Depth in Feet . . . . . . . . . . . . . 25 V. Length of Shoreline . . . . . . . . . . . .‘. . 26 VI. Shore Development Index . . . . . . . . . . . . 28 VII. Approximate Per Cent Shoal . . . . . . . . . . 29 VIII. Approximate Per Cent of Shoreline Border in Swamp or Marsh . . . . . . . . . . . . . . . 31 IX. Abundance of Marginal Aquatic Vegetation . . . 32 X. Average Per Cent Slope to Five Foot Depth . . . 36 XI. Maximum Depth - Surface Relation . . . . . . . 38 XII. Classification of 48 Lakes in Jackson County . 46 XIII. Ownership Status of Lakes Inventoried and Classified . . . . . . . . . . . . . . . . . 61 XIV. Jackson County Lakes Planted with Trout . . . . 62 XV. Jackson County Water Resource Data . . . . . . 63 vii LIST OF FIGURES FIGURE 1. Mud Lake, Low Overall Recreational Use . . . . . 2. Clark Lake, Intensive Overall Recreational Use . 3. Major Drainage Basins of Jackson County . . . . . 4. Farwell Lake, Marl Bottom . . . . . . . . . . . . 5. Little Portage Lake, Shoreline . . . . . . . . . 6. The Lime Lakes, Formed from Marl Excavations . . 7. Walter J. Hayes State Park Beach . . . . . . . . 8. Schoolhouse Lake, Low Overall Recreational Use . 9. The Portage River . . . . . . . . . . . . . . . . 10. Round Lake (155A.), Sparse to Moderate Aquatic Vegetation . . . . . . . . . . . . . . . . . . ll. Crispell Lake, Sparse to Moderate Aquatic Vegetation . . . . . . . . . . . . . . . . . . 12. Swains Lake, Sparse to Moderate Vegetation . . . 13. Little Cranberry Lake, Abundant Vegetation . . . l4. Walz Lake, Abundant Vegetation . . . . . . . . . 15. Goose Lake, Abundant Vegetation . . . . . . . . . l6. Horseshoe Lake, Low Water Level . . . . . . . . . 17. Brill Lake, Intermittent Drainage Characteristics 18. Pink Lake, Low Overall Recreational Use . . . . . 19. Trail to Pink Lake . . . . . . . . . . . . . . . viii PAGE 17 18 18 19 19 21 21 33 33 34 34 35 35 4o 4o 42 42 LIST OF MAPS MAP PAGE 1. Location of Lakes Inventoried and Classified . . . 58 2. Public Ownership in Jackson County . . . . . . . . 59 3. Lake Inventory lap, Swains Lake '. . . . . 60 ix I. THE PROBLEM Statement‘gf the Problem. The intent of this study was to inventory and inves- tigate characteristics of lakes in Jackson County, Michigan in order to classify such lakes for purposes of analysis and planning for multiple recreational use. Jgstification. The wise and continued use of water resources will be taxed to the utmost in future years. This premise is based on (1) increased leisure time due to shorter work weeks and more paid vacations, (2) demand for more and better recreational facilities, (3) an increasingly large population, and (4) a higher investment cost in recreational development. Social trends such as these do not indicate a diminution in lake use. Various types of lake classifications have been developed for specific purposes--usually biological or phys- ical. Little work has been done in an attempt to reflect the overall characteristics of a lake as a guide to the planning and development of such a resource. While few lakes are precisely identical in character, there are certain factors that tend to limit the natural ability of a lake to sustain various uses. This study was undertaken in order to identify those limiting factors which determine the use capability of a given lake. Limitations gfi the Study. The nature of this inquiry was primarily geograph- ical. A reconnaissance type survey of selected lakes in Jackson County was performed, and the analysis of collected data resulted in the proposed classification system. The classification developed reflects the natural character and present extent of use or potential use of the lakes inven- toried. Generally, the following items form the primary basis for recreational lake use in Michigan today: (1) boating, (2) camping, (3) cottage development, (4) fishing, (5) picnicking, (6) swimming and wading, and (7) hunting. An attempt was made to relate these factors to lakes not utilized to their maximum potential. The seventh factor, hunting, while singularly important to overall lake use in some areas, was of minor significance in the study area. As a result, this factor was not stressed in the investigation. The development of the classification system was based on the evidence of primary recreational uses mentioned. While many other recreational pursuits were recognized, they were not considered to be of primary importance to overall lake use in Jackson County. Definition 9_f_ M. Certain definitions were adopted so as to eliminate ambiguity and vagueness and to establish the proper frame- work of meaning intended in the discussion. Bog 1ake--An area of open water commonly surrounded either wholly or in part, by true bog margins; possessing peat deposits about the margins or in the bottom or both; usually with a false bottom composed largely of very finely divided, flocculent, vegetable matter; containing consider- able amounts Of colloidal materials; and so constituted genetically that in time it may become completely occupied by bog vegetation. Lake--A body of standing water occupying a basin and lacking continuity with the sea. Marl—~An earthy deposit of calcium carbonate commonly mixed with clay and other impurities. Marsh-~Flat, wet areas covered dominantly with grasses or other herbaceous plants. Muck--Highly decomposed organic soil material developed from peat. Peat-~Unconsolidated soil material consisting largely of undecomposed or only slightly decomposed organic matter accumulated under conditions of excessive moisture. Pond-~A small, shallow body of standing water in which reIatively quiet water and extensive plant occupancy are common characteristics. Shoal~-The area of water less than twenty feet in depth. Swamp-~Flat, wet areas covered dominantly with woody vegetation. 1Paul S. Welch, Limnology (New York: McGraw-Hill Book Company, Inc., 1952), p. 384. 2F. A. Forel, Lg Lgman. Monographie Limnologique. (Lausanne, Switzerland, 1892). Public lake--Any lake which is accessible to the public via publiE owned lands, waters, or highways contig— uous thereto, or via the bed of a navigable stream and which may be used for navigation, fishing, hunting or other lawful purpose and reasonably capable of supporting a beneficial public interest. Priv te lake-~Any inland lake other than a public inland laEe.g Semieprivate lake--A lake ordinarily private, but having access by permiss10n of or payment of fee to the riparian owner. The following terms were compiled in order to des- cribe existing lake development: Undeveloped--No commercial or residential structures other than docking facilities present; lake may be used for fishing, hunting, swimming, and other purposes. Low development-~8cattered residential structures may be present; no commercial structures other than docking facilities and camp grounds present;-lake may be used for fishing, hunting, swimming, and other purposes. Moderate development--Many residential structures; commerciaI structures, including docking facilities and camp grounds, may be present; lake is used for various recre- ational purposes. Full development--Nearly all usable shoreline cottage and camp Sites are developed; various commercial structures are present; evidence of public services such as schools, post offices, fire stations, and community halls may be present; multiple tier or concentric develOpment outward from the shoreline may exist; lake is used for various recreational purposes. Intensive development--Competition exists for less desirable cottage and home Sites; multiple tier or concentric development outward from the shoreline exists; numerous public services are provided; many commercial enterprises exist; lake is used for various recreational purposes. 3Comp. Laws. Michigan, 1948, Sec. 281.201. 41bid., Sec. 281.202. Figure 1. Small rowboats, crude docks, abundant aquatic vegetation, and organic soil types--evidence of low overall recreational use, north end of Mud Lake. Figure 2. Intensive overall recreational use evidenced by a well defined bank and shoreline, a variety of water craft, and a lack of dense aquatic vegetation, east end of Clark Lake. II. STATUS OF THE PROBLEM Review 2: Literature. A great many classifications have been developed that tend to reflect specific characteristics or biOIOgical productivity of a lake. Among these are the classification of Forel and Whipple based on thermal conditions and water stratification and the eutrOphic, oligotrophic, and dys- trophic types established by Thienemann and Naumann that are related to biological productivity. Both of these classifications are aptly described by Welch.l A drainage classification developed by Pennak con- sists of three classes: drainage lakes Whose inlets and outlets are active throughout the year, semi-drainage lakes whose inlets and outlets function intermittently, and seep- 2 "This classification age lakes without inlets and outlets. reflects the rate at which water moves through the lake and the rate of influx of dissolved salts from the watershed. This rate is believed to be highest in lakes connected with 1Paul S. Welch, Limnology (New York: McGraw-Hill Book Company, Inc., 19525, pp. 63 and 343. ZRobert w. Pennak, "Some Aspects of the Regional Limnology of Northern Colorado," University 9£.Colorado Studies, Series D, 2:263-293, 1945. large streams and lowest in those whose levels are main- tained by the 51 w seepage of ground water."3 Several classifications have been proposed that reflect the existing and potential use of shoreline areas. These classifications are based primarily on physical char- acteristics of the shoreline such as slope, type of material, and evidence of erosion. Such is the shorezone inventory system developed by Jewell,4 and the lake shore inventory and classification reported by Bowers, McMurry, and Stahl.5 Similar to these two studies, but having additional information relative to the multiple use of shoreline areas, are the shoreline surveys of the Atlantic and Gulf Coasts conducted by the National Park Service,6 the county shore- type bulletins by Humphrys, Hornet, and Rogers,7 and the 3Frank P. Hooper, "Some Chemical and Morphometric Characteristics of Southern Michigan Lakes," Pa ers of the Michigan Academy_of Sci nce, Arts, and Letters, 311:109-130, 1956. 4William F. Jewell, "A System of Inventory for the Shorezones of the Great Lakes" (unpublished Master' 5 thesis, Michigan State College, East Lansing, 1947). 5Neal M. Bowers, Kenneth C. McMurry, and Katherine M. Stahl, "Lake Shore Inventory and Classification," Pa ers of the Michigan Academy of Science, Arts, and Letters, g7. 6Our Vanishing Shoreline (A Report by the United States Department of the Interior, National Park Service, 195 ). 7C. R. Humphrys, R. N. Horner, and J. H. Rogers, Shoret e Classification of Van Buren County, Michigan (Shoretype Bulletin No. 2. East Lans1ng: Michigan State University, Department of Resource Development, 1958). recreational site study of selected lakes in washington and Idaho reported by Booth.8 These three studies were con- cerned with cultural characteristics and positive recreational values as well as physical site characteristics. Lakin has proposed a legal classification of waters into seven types for the purpose of assuring the greatest public and private use.9 This classification takes into con- sideration the general public welfare, existing and future economic benefits, and recreational uses. The classification is intended to facilitate the administration of state water resources by government agencies. As part of a broader study of physical factors and land use in two Michigan counties, Humphrys classified 262 lakes on the basis of area, shape, maximum depth, bottom type, per cent shoal, vegetation, fish species, inlets and outlets, and water character.10 This classification was formulated primarily to delineate the lakes on the basis of 8Alfred W. Booth, The Lakes 2: the Northeastern Inland Em ire (Bulletin No. 5. Pullman, Washington: State College 0 Washington, School of Economics and Business, 1948). 9H. D. Lakin, "Proposed Stream Classification Law for Michigan" (unpublished paper, Michigan State University, Department of Resource Development, East Lansing, March 20, 1957). (Mimeographed.) 10Clifford R. Humphrys, "The Evaluation of Physical Factors in Relation to Land Use: A Study of Gogebic and Ontonagon Counties, Michigan" (unpublished Ph. D. thesis, Michigan State College, East Lansing, 1952), pp. 114-125; 234-235. their natural characteristics, however, the utilitarian properties of the lakes were not evaluated and correlated with the selected classification criteria. Statement 2: Purpose. Owing to the stress on purely physical classifi- cation in previous investigations, it was the purpose of this research to more fully evaluate and correlate cause and effect relationships of selected geographical factors and observed recreational lake use. III. METHODOLOGY Sources.gf.gg£a. Various sources of information were used during the study. Several types of maps proved invaluable. Among these were the lake inventory maps of the Institute for Fisheries Research at Ann Arbor, Michigan. These maps show the physical lake outline and basin configuration through the use of submerged contour lines or isobaths. They provide depth data, and furnish information on aquatic vegetation, bottom soil type, and some cultural developments. Topographic quadrangle maps of the United States Geological Survey, aerial photographs, and a soil type map of jackson County were helpful in identifying the boundaries of organic soils around the periphery of the lakes studied. Michigan Department of Conservation county maps and a county plat book helped in the determination of riparian ownership. Inventory data from the Fish Division of the Department of Conservation furnished information on physical, biological, and geographical characteristics, as well as miscellaneous notes on accessibility and other factors. Inventory Procedure. The field reconnaissance of lakes was performed 11 during the summer of 1958, during the period of greatest overall recreational use and of maximum aquatic vegetation growth. Some field checks were made during the following winter on the intermittency of certain inlets and outlets. Observations of each lake were made at sufficient vantage points around the shoreline to obtain the needed data. The use of binoculars greatly reduced the number of field checks on some of the larger lakes. Data was recorded on an inven- tory schedule similar to that shown in Appendix A, page 54. Observations on lake use were based on physical evidence such as number of boats, docns, cottages, and other cultural improvements. Many personal contacts with local residents were helpful in establishing existing lake use ratings. These conversations were particularly helpful in determining predominant fish species and the nature of past and present fishing. Treatment 3: Findings. On the basis of the field observations and a review of various maps and other inventory data, selected compu- tations and tabulations were made. These calculations and their relation to the study are discussed in the following section. IV. REPORT OF THE STUDY Scoge. Geographical factors considered were conditions such as lake size, shape, and basin configuration. The nature of the land surface was also noted, as were drainage conditions, vegetative cover, human occupation along shores, and upland and lake bottom soil types. Evidence of lake use was based on available inventory data, personal contacts, and field observations. A list of the lakes inventoried is given in Table I. The location of these lakes is shown on Map 1, page 58. Area Description. Jackson County was selected for the study area because of personal familiarity, relative ease of access, and physiographic variations. Beforehand knowledge of general locations helped expedite the performance of field work in a minimum of time. Jackson County has a land area of 705 square miles and is situated in the densely populated, south-central part of the Southern Peninsula of Michigan. Its water resources are heavily used by local residents as well as by outstate tourists. The county climate is characterized by moderately cold winters and warm summers. The average January and July temperatures are about 25°F. and 73°F., respectively. .The annual rainfall is approximately 31 inches, being distributed TABLE I LAKES INVENTORIED AND CLASSIFIED Name Town Range Section Ackerson 33. 13. 19,30 Batteese 13. 13. 9 Brill 23. 13. 22 Clark 48. 13. 15,16,17,20,21,22 Clear 1,28. 23. 35,36,1,2 Cranberry 38. 13. 29,31,32 Cranberry, Little 33. 13. 29,32 Crispell 43. IV. 20,21 Farwell 43. 23. 25,36 Fink 1N.,13. 23. 34,4 Freymuth IS. 23. 32 Gillette 28. 13. 27,28,33,34 Goose 23. 1,23. 19,24,25,30 Grass 23. 23. 29,32 Hoffman 13. 23. 29 Horseshoe 43. 2W. 29 Leeks 13. 23. 13 Lime 33. 2W. 28 Line, North 33. 2W. 21 Lutz 23. 23. 4 Ierkle 13. 23. 14,15 Mud 48. 23. 25,26,35,36 Olcott 33. 13. 23,24 Olcott, Little 33. 13. 23 Pleasant - 13. 13. 7,8,17,18 Pond Lily (34A.) 13. 23. 32 Pond Lily (67.5A.) 23. 23. 12 Portage 1,23. 1,23. 25,36,30,31,32,5,6 Portage, Little 18. 23. 29,32 Price 33. 13. 14,15 Round (45A.) 33. 13. 8,9,16,17 Round (66.5A.) 4,53. 2,33. 1,6,31,36 Round (155.1.) 43. 1,2W. 25,30,31,36 Schoolhouse 23. 23. 5 Stony 3,43. 13. 2,3,35 Swains 48. 3W. 3,4 Sweezey 33. 23. 2,35 Tims . 23. 23. 20,29 Trumbull 13. 1W. 24 Vandercook 33. 1V. 22,23,26,27 Vineyard 43. 23. 28,29,32,33 Walz 18. 23. 36 Wamplers 4,58. 23. 1,2,3,34,35,36 Welch 23. 1,23. 13,18 White 18. 13. 29 gilbur 48. 33. 14,15 DH 33. 1 21:. Wolf, Little 3s. ’23. 93’“ _ 13 14 relatively evenly throughout the year, and the average frost free period is 155 days.1 May, June, and September in de- creasing order have the highest monthly precipitation averages. February, January, and December in increasing order have the lowest monthly precipitation averages. The average snowfall is 45 inches.2 While the county is suscep- tible to wind storms and tornadoes, the wind movement is generally low; prevailing winds are from the west. The evaporation rate is low, partly due to a moderately high relative humidity. The topography of Jackson County is undulating to rolling with the maximum relief being approximately 280 feet. The areas of flat surface and slopes are nearly equal. Two notable exceptions are the northeast quadrant and the south- central part of the county which are characterized by rolling to hilly relief in which the area of slopes exceeds that of flat land. These slopes are largely the result of glacial deposition. The southeast quadrant of the county lies in an area interlobate between the Kalamazoo moraninic system of the Saginaw glacial lobe and the Mississinewa morainic system of 1United States Department of Agriculture, Climate and Man, Yearbook of Agriculture (Washington: Government Printing Office, 1941), p. 915. ZSnowfall Contour Map, Winter of 1956-57 (Lansing: Michigan State Highway Departmenfik 15 the Erie glacial lobe. The southeast guadrant is character- ized by a great deal of outwash material, a result of the rapid melting of the Erie and Saginaw lobes in this region. Areas of ground moraine are loCated north and south of Clark Lake. The northeast guadrant of the county is composed of outwash material and ground moraine. In addition this quadrant is divided roughly from northeast to southwest by a portion of the Kalamazoo moraine. That portion of the Waterloo State Recreation Area which lies within the county is associated with the Kalamazoo moraine. The west half of the county consists chiefly of moraines of the Kalamazoo system. Numerous outwash channels are scattered throughout this morainic area, and lesser amounts of ground moraine also occur. Two former glacial spillways are found (1) south of Springport, and (2) north of Parma. Both channels are now tributaries of the Kalamazoo River which drains the southwestern part of the county. Several eskers are promi- nent in the county-~most notable of which is Blue Ridge, visible from the road cut of US-127 seven miles south of Jackson. According to Veatch, the major soil association of the county is that of the Hillsdale-Miami-Bellefontaine complex.3 These soils are mostly sandy loams and light 3J. O. Veatch, Soils and Land.2£_Michi an (East Lansing: Michigan State College Press, 1953) p. 72. 16 loams of moderate natural fertility. A soil association subordinate to the preceding, but second in extent,is the Fox-Plainfield group. These soils occur chiefly in the southeast quadrant of the county and are of generally low natural fertility. Of the soils men- tioned the Hillsdale series occupies the greatest extent and is predominant in all quarters of the county except the south- east. Jackson County is well endowed with water resources. Its streams constitute the headwaters of several major river systems of the state. Major drainage systems of the county are shown in Figure 3. Water from wells is generally avail- able at from 20 to 150 feet, and in some areas, such as at Clark Lake, flowing wells occur. There are 188 lakes in the county--1l of them over 200 acres in size,4 and approximately 20% of the total county area is swamp and other wet 1ands.5 In a study of chemical and merphometric characteristics of selected lakes in southern Michigan, Hooper proposes an alkalinity of 105 p.p.m. as the arbitrary threshold for "hard water lakes" in this region.6 His study also showed 4"Jackson County Water Resources Data" (Lansing: Michigan Water Resources Commission). (n.d.). 51. o. Veatch, F. w. Trull, and J. A. Porter, Soil Surve .2: Jackson County, Michigan, United States Department of Agriculture, Number 17(Washington: Government Printing Office, 1926), p. 2. 6Hooper, 92. cit., pp. 127-128. FIGURE 3 MAJOR DRAINAGE BASINS OP JACKSON COUNTY 17 18 Figure 4. Marl bottom and concretions at the south end of Farwell Lake--a "hard water" lake with an alka- linity of about 153 p.p.m. Figure 5. Shoreline at the southeast side of Little Portage Lake--a "hard water" lake with an alkalinity range of about 204-237 p.p.m. The white bands are small snail shells deposited at successively lower water levels. 19 Figure 6. Lime Lake and North Lime Lake separated by the New York Central roadbed. Both lakes were formed from marl excavations. Lime Lake on the right is heavily used for swimming in spite of a steep slope to the five foot depth level and a very narrow beach. ,5; - Figure 7. The intensely used beach portion of Walter J. Hayes State Park located on Wamplers Lake. 20 that the mean alkalinity of twenty-two lakes in Jackson County was 149 p.p.m. The individual alkalinity of these lakes was for the most part above 100 p.p.m. This tends to indicate the lakes of the county are well within the hard water range. The original forest vegetation, primarily of oak, hickory, beech, maple, elm, ash, and basswood is now found in small plots and wood lots. Scattered growths of red cedar, favored by sandy soils and relief induced micro-climate, can be found in various parts of the county on the steeper slopes. Most of the lakes inventoried are of glacial origin. Two exceptions are the Lime Lakes south of Spring Arbor, which are a result of marl excavations. According to Scott, the following types of lake basins due to glacial processes have been recognized in Michigan:7 1. Glacial scour. 2. Morainal basin. 3. Morainal dam. 4. Pit. 5. Inter-morainic. 6. Fosse. A cursory examination established the morainal basin and pit lake as the two leading types of lake basins recognized in Jackson County. However, this was not a detailed investi- gation, and individual variations may occur. 71. D. Scott, Inland Lakes 2f Michi an, Publication 30, Geological Series 25 (Lansing: Michigan Geological and BioIOgical Survey, 1920), p. 23. 21 Figure 8. Schoolhouse Lake, having a low degree of overall recreational use, and situated in a swamp area with a marginal soil type of Rifle peat. Figure 9. The Portage River, which provides public access to Freymuth Lake visible in the background. 22 Data Presentation. On the basis of the inventory data obtained, certain compilations and tabulations were made. Table II gives the evaluation of existing development on the forty-eight lakes inventoried. The development ratings are those described in the section of definitions, page 4. The greatest potential develOpment lies in the low and moderately classed lakes which represent forty-six per cent of the lakes studied. Table III, page 24, lists the area of the lakes studied. This information was obtained from lake inventory maps compiled by the Institute for Fisheries Research. Owing to increased vegetative growth, the area of Walz lake was recalculated using the graph paper method.8 0 Table IV, page 25, gives the maximum depth of the lakes studied. This information was also obtained from lake inventory maps. Table V, page 26, gives the shoreline length for each lake studied. This information was calculated by tracing the perimeter of each lake shown on an inventory map with a Dietzgen map measurer. The shoreline of Walz Lake 8The outline of a lake is superimposed upon squared paper, and its area is determined by dividing the total number of squares included in the lake outline by the number of similar squares within that unit, based on the map scale, in which it is desired to express the area. TABLE II EXISTING LAKE DEVELOPMENT 23 Name Undeveloped Low Moderate Full Intensive Ackerson Batteese; Brill Clark Clear Cranberry Cranberry, Little Crispell Farwell Fink Freymuth Gillette Goose Grass Hoffman Horseshoe Leeke Lime Lime, Nerth Lutz Merkle Mud OIcott Olcott, Little Pleasant Pond Lily (34A.) Pond Lily (67.5A.) Portage Portage, Little Price Round (45A.) Round (66.5A.) Round (155A.) Schoolhouse Stony Swains Sweezey Tims Trumbull Vandercook Vineyard Walz Wamplers Welch White Wilbur Wolf MM MM MMM X MM MM MM M MM M MM MMM MM MMM MM Wolf, Little '_——"TBTEI PerTent Oi IDLE]. 11 TABLE III LAKE AREA IN ACRES 24 Area Name 780 Acres Wamplers 580 Clark 505 Vineyard 398 Goose 376 Wolf 360 Portage 350 Gillette 348 Grass 269 Pleasant 240 Stony 213 Farwell 187 Ackerson 155 Round 144 Vandercook 141.9 Brill 136 Clear 119 Mud 116 Welch 106 Wolf, Little 105 Sweezey 103 Batteese 103 Tims 96 Lime 93 Cranberry 88.5 Merkle 82.5 Crispell 75 Lime, North 70 White 69.5 Swains 67.5 Pond Lily 67.5 Portage, Little 66.5 Round 53 Wilbur 52.5 Hoffman 49 Horseshoe 49 Price 45 Round 44 Olcott, Little 40 Olcott 34 Pond Lily 33.5 Fink 13.3 Walz 12.5 Trumbull 11.5 Leeke 11.3 Cranberry, Little 11.2 Freymuth 3.5 Schoolhouse 2 Lutz 25 TABLE IV MAXIMUM DEPTH IN FEET Depth Lake 64 Ft- Swains 52 Pleasant 50 Clark 50 Round (66.5A.) 50 Wolf, Little 47 Ackerson 45 Wolf 43 Farwell 42 Vandercook 42' Vineyard 40 Portage 40 Round (155A.) 39 Wamplers 35 Trumbull \ 35 White 34 Clear 32 Cranberry 32 Price 32 Stony 30 Gillette 30 Lime, North 27 Brill 27 Lime 25 Crispell 25 Horseshoe 25 Olcott 23 Mud 23 Sweezey 22 Olcott, Little 22 Tims 21 Pond Lily (34A,) 21 Portage, Little 20 Hoffman 20 Welch 19 Schoolhouse 18 Fink 17 Batteese 17 Cranberry, Little 14 Freymuth 13 Grass 13 Lutz 13 Wilbur 12 Merkle 9 Leeke 9 Round (45A.) 7 Pond Lily (67.5A.) 6 Goose 5 Walz 26 TABLE V LENGTH or SHORELINE (PERIMETER IN FEET) Length Lake 34,663 Ft- Vineyard 31,300 Clark 27,347 Wamplers 24,900 Goose 242000 Portage 23,100 Wolf 21,900 Stony 21,300 Gillette 21.300 Grass 18,200 Ackerson 17,000 Farwell 13,200 Pleasant 13,013 Clear 12,525 Brill 12,000 Cranberry 11,600 Vandercook 11,100 Mud 11,100 Round (155A.) 10,725 Welch 10.385 Swains 10,275 Lime 10,200 Tims 9,909 Wolf, Little 9,900 Crispell 9,700 Portage, Little 9,375 Sweezey 9,225 Batteese 9,000 Lime, North 8,250 Merkle 8,150 Horseshoe 8,100 Olcott, Little 7,800 Wilbur 7,050 White 7,037 Round (66.5A.) 6,650 Hoffman 6,350 Pond Lily (34A.) 6,200 Olcott 6,100 Price 6,050 Pond Lily (67.5A.) 5,450 Round (45A.) 4,575 Fink 4,250 Walz 3,800 Leeke 3,000 Trumbull 2,750 Cranberry, Little 2,700 Freymuth 1,500 Schoolhouse 1,100 Lutz 27 was delineated so as to correspond with present conditions. Shore develOpment indices given in Table VI were calculated according to the procedure described by Welch.9 Shore development refers to the ratio of shoreline length to the length of the circumference of a circle whose area is equal to that of the lake. The following formula was used: Shore development index = -§Rg%§r ; where s is length of shoreline, and a is area of the lake. This index reflects the degree of regularity of a shoreline. A large number reflects a high degree of irregularity; while an index of one indicates a shoreline in the approximate shape of a circle. This relationship between the length of shoreline and the area enclosed has biological significance. As a general rule the higher the index number, the greater the productivity. The highly irregular shoreline has more bays or sheltered zones protected from the wind and resultant wave action. As a result of reduced wave action, greater Opportunity is afforded plant growth. Table VII, page 29, gives the approximate percentage of lake area with a water depth of less than twenty feet. These estimates were derived using the graph paper method (see footnote on page 22). The per cent slope between the five and twenty foot depth usually encompasses the area of 9Paul S. Welch, Limnological Methods (Philadelphia: Blakiston Company, 1948), p. 93. 28 TABLE VI SHORE DEVELOPMENT INDEX Index Number Lake Vineyard Stony Ackerson Clark Cranberry Goose Portage Swains Farwell Horseshoe Olcott, Little Walz Wolf Clear Crispell Gillette Grass Leeke Pond Lily (34A.) Brill Lime, North Lime Mud Portage, Little Round (155A.) Tims Wilbur Olcott Vandercook Wamplers Welch Wolf, Little Batteese Hoffman Merkle Price Round (66.5A.) Sweezey Cranberry, Little Fink Freymuth Lutz Pleasant Pond Lily (67.5A.) Round (45A.) Schoolhouse Trumbull White HHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHHN HHHHHHHHHHNNNNNNwwwwwfififihhfihfimmmMOWQOQGGQQQQmQWH 29 TABLE VII APPROXIMATE PER CENT SHOAL Per Cent Lake 100 % Batteese 100 Cranberry, Little 100 Fink 100 Freymuth 100 Goose 100 Grass 100 Hoffman 100 Leeke 100 Lutz 100 Merkle 100 Pond Lily (67.5A.) 100 Round (45A.) 100 Schoolhouse 100 Walz 100 Welch 100 Wilbur 99 Portage, Little 99 Tims 98 Lime, North 98 Mud 98 Sweezey 97 Gillette 97 Olcott, Little 95 Crispell 90 Clear 85 Horseshoe 85 Stony ‘ 85 White 80 Pond Lily (34A.) 75 Ackerson 75 Lime 75 Olcott 75 Round (155A.) 70 Cranberry 70 Price 70 Wamplers 65 Brill 65 Wolf, Little 60 Clark 60 Pleasant 60 Trumbull 60 Wolf 50 Farwell 50 Portage 5O Swains 40 Round (66.5A.) 30 Vandercook 25 Vineyard 30 most abundant submerged, rooted plant growth,10 and the actual slope may indicate to what degree the products of decomposition are available to plant and animal life. The shoal area also includes the spawning grounds of various fish species. Table VIII lists the approximate percentage of lake shoreline bordered by swamp or marsh. This information was determined from field observations and analysis of aerial photographs. Table IX, page 32, indicates the estimated overall abundance of aquatic vegetation in the shoal area for each lake studied. The classifications sparse to moderate and abundant reflect the density and frequency of occurrence of emergent, floating, and submergent aquatic vegetation. No further qualitative distinction was attempted. Examples of sparse to moderate and abundant aquatic vegetation are illus- trated in Figures 10-15, pages 33-35. Table X, page 36, gives the average per cent slope from the shoreline to the five foot depth for each lake studied. Per cent slope calculations were performed using the lake inventory maps. On these maps equal distances were marked on the lake shore- line; the shortest distance from each point so marked to the five foot isobath was measured to the nearest 0.05 of an inch. The arithmetic mean of all these distances was converted to 10Hooper, 22. cit., p. 115. 31 TABLE VIII APPROXIMATE PER CENT OF SHORELINE BORDER IN SWAMP OR MARSH Per Cent Lake 100 % Fink 100 Freymuth 100 Hoffman 100 Leeke 100 Lutz 100 Schoolhouse 100 Walz 98 Pond Lily (34A.) 98 Portage, Little 95 Horseshoe 90 Brill 90 Trumbull 80 Cranberry 80 Lime 80 Pond Lily (67.5A.) 75 Cranberry, Little 75 Goose 75 Olcott, Little 70 Batteese 70 Merkle 70 Tims 65 Wilbur 60 Lime, North 55 Ackerson 55 Mud 50 Vineyard 45 Olcott 45 Stony 40 Wolf 35 Crispell 35 Farwell 35 White 30 Portage 30 Price 30 Vandercook 25 Grass 25 Swains 25 Wolf, Little 20 Gillette 20 Sweezey Round (66.5A.) Wamplers Welch 15 12 10 5 5 0 O 0 Round (45A.) Round (155A.) Clark Clear Pleasant 32 TABLE IX ABUNDANCE OF MARGINAL AQUATIC VEGETATION Sparse To Moderate Abundant Ackerson Batteese Clark Brill Clear Cranberry Crispell Cranberry, Little Farwell Fink Gillette Freymuth Grass Goose Lime Hoffman Lime, North Horseshoe Olcott Leeke Pleasant Lutz Pond Lily (34A.) Merkle Portage Mud Portage, Little Olcott, Little Price Pond Lily (67.5A.) Round (45A.) Round (66.5A.) Round (155A.) Stony Swains Sweezey Trumbull Vandercook Vineyard Wamplers Welch White Wolf Wolf, Little Schoolhouse Tims Walz Wilbur Figure 10. Round Lake (155A.). jUdged to have sparse to moderate aquatic vegetation in the shoal area. Figure 11. Crispell Lake, judged to have sparse to mod- erate aquatic vegetation in the shoal area. 33 Figure 12. Swains Lake, judged to have sparse to mod- erate vegetation in the shoal area. Figure 13. Little Cranberry Lake, judged to have abun- dant vegetation in the shoal area. 34 Figure 14. Walz Lake, judged to have abundant aquatic vegetation in the shoal area. Figure 15. Goose Lake, judged to have abundant aquatic vegetation in the shoal area. 35 36 TABLE X AVERAGE PER CENT SLOPE TO FIVE FOOT DEPTH Per Cent Slope Lake 16.1 % Pond Lily (34A.) 12.5 Trumbull 11.1 Lutz 9 Schoolhouse Cranberry, Little Freymuth Lime Portage, Little Cranberry Fink Swains Vandercook White Round (66.5A.) Olcott, Little Ackerson Welch Wilbur Leeke Mud Brill Farwell Lime, North Round (45A.) Clear Crispell Price Vineyard Wolf, Little Horseshoe Batteese Olcott Hoffman Merkle Pleasant Tims Portage pond Lily (67.5A.) Wolf Clark Round (155A.) Wamplers Stony Gillette Sweezey Grass Goose* -_- Wa1z* OOOOHHHI—Ii—II—IHHHHHHHHHHHHNNNNNNNNNNNwwwwpmem a o o o o o o o e o e a 0 O O O 0 O O O fiQQtDOOHNNwmbrhtG-OQQOOOOOOOOCDOOHHNNyP-thnhmtDOHI-‘HHNWBQNOO NOnly one point in the lake five feet deep. 37 feet according to the appropriate map scale. The average per cent slope, the vertical depth in feet for every 100 feet of horizontal distance, was then calculated by simple proportion, as follows: 212' (Mean of severed measuremchs) 52////’/7 5' _ x -—EEF_' " 100' 212x 500 x ZAV132/U% I! The spacing of peripheral measurement points on the map of each lake varied depending on the lake area and map scale. Variation in such spacing was necessary to achieve a satis- factory degree of consistency among several per cent slope determinations for a given lake. As a general rule, however, a spacing of not greater than 500 feet proved satisfactory for those lakes larger than 100 acres. Table XI lists the maximum depth-surface relation indices for the various lakes. As described by Welch, this index is an indication of the relation of depth to horizontal extent.11 The index is derived by dividing the maximum depth of a lake in feet by the square root of the surface area in feet. 11Paul S. Welch,.Limnological Methods (Philadelphia: Blakiston Company, 1948), p. 78. 38 TABLE XI MAXIMUM DEPTH - SURFACE RELATION Index Number Lake 0.0483 Schoolhouse .0474 Trumbull .0440 Lutz .0368 Swains .0294 Round (66.5A.) .0242 Cranberry, Little .0233 Wolf, Little .0219 Price .0200 Freymuth .0200 White .0189 Olcott .0172 Pond Lily (34A.) .0171 Horseshoe .0168 Vandercook .0166 Lime, North .0165 Ackerson .0159 Cranberry .0159 Olcott, Little .0154 Round (155A.) .0152 Pleasant .0149 Fink .0141 Farwell .0140 Clear .0132 Crispell .0132 Hoffman .0132 Lime .0127 Leeke .0122 Portage, Little .0111 Wolf .0108 Brill .0107 Sweezey .0104 Tims .0101 Mud .0101 Portage .0099 ' Clark .0094 Stony .0089 Vineyard .0089 Welch .0085 Wilbur .0080 Batteese .0077 Gillette .0067 Wamplers .0066 Walz .0064 Round (45A.) .0061 Merkle .0041 Pond Lily (67.5A.) .0033 Grass 0.0014 Goose 39 Analysis gfi Data. All inventory data were correlated with evidence of lake use in order to analyze relationships between use and environment. There was no evidence of power, water supply, or irrigation development on any of the lakes studied. It is felt this type of development would be impeded by legal problems and the low water head of lakes in the county. Low water levels, a result of abnormally low precipitation in 1958, were evident on several lakes. Such fluctuations would hinder the development of a lake for irrigation and water supply purposes. Lake area in conjunction with depth was observed to enhance the degree of boating possible, the larger lakes, usually 100 acres or more with adequate depth, being more suitable for boatino. There was no apparent relationship between recreational use and the absolute length of shore- line, and the shore development index alone was not a reliable indication of fishing quality. Most of the lakes inventoried were sheltered from intense winds to the extent that shoal areas were protected from damaging wave action. Lakes of both intensive and low recreational use were found in all ranges of the per cent shoal array. In general, however, those lakes with 100 per cent shoal were associated with marsh, swamp, or bog-like situations. The extent of swamp or marsh conditions around the lake periphery was observed to have a limiting effect on 40 \ 's'w' Il‘d‘ .: ' I ‘- L 1‘... , .> I ,J , ‘n r"ifl"'51"flM" '4'-- r ‘ l-—» \‘I- ,— Pigure 16. Boats mired in muck at Horseshoe Lake--a result of the low water level evidenced on many Jackson County lakes in the summer of 1958. Figure 17. Pond lily choked outlet of Brill Lake, a result of low water level and intermittent drainage characteristics. 41 recreational development. This type of lake margin impeded access to the water and furnished an environment undesirable for bathing. The organic soils did not provide suitable bearing strata for cottages, and their use for such devel- opment was noticeably limited. A close relationship was observed among the abundance of vegetation in the shoal and the character of the shoreline. All of the lakes considered to have abundant aquatic vege- tation in the shoal area also had a shoreline border of more than fifty per cent swamp or marsh. Abundant vegetation impeded access to the water and restricted shoreline uses, particularly swimming. Personal interviews indicated that fishing was better on those lakes with at least a moderate abundance of aquatic vegetation. This observation is in keeping with present biological knowledge to the effect that excessive vegetation competes unfavorably with fish life for food nutrients while a moderate abundance of aquatic vege- tation provides optimum conditions for food and shelter. An expected relationship between per cent slope to the five foot water depth and lake utilization for swimming did not materialize. There was no apparent correlation between the width of a bathing beach and its use for swimming. The maximum depth-surface relation index served only to reflect the physical comparison among lakes of depth to surface area. No relationship between this index and suit- ability for fishing, boating, and other uses was ascertained. 42 Figure 18. Fink Lake, privately owned, bordered by swamp, and having a low degree of overall recre- ational use. Figure 19. Trail to Pink Lake-~for 375 feet planks are necessary to provide adequate footing over the Rifle peat soil type. 43 The accessibility of lakes by roads and status of riparian ownership were discarded as limiting lake use factors. While both conditions may sharply limit lake use at the present, they cannot be considered permanent enough in nature to restrict future potential development. Classification Criteria. From an examination of the inventory data and tabular compilations, it became apparent that there were only three reliable factors corresponding to overall rec- reational lake use, namely: area, percentage of swamp or marsh margin, and abundance of marginal aquatic vegetation. Owing to the close correlation between abundant vegetation in the shoal and a proportion of swamp or marsh shoreline greater than fifty per cent, the fifty per cent figure was adopted as the transition point for limiting effects of a swamp or marsh margin. The following criteria were then grouped into the eight different possible combinations: Greater than 50% swamp or marsh. Less than 50% swamp or marsh. Sparse to moderate vegetation in the shoal area. Abundant vegetation in the shoal area. Greater than 100 acres surface area. Less than 100 acres surface area. Since the surface area tended to compliment or only modify the apparent lake use, it was drOpped as an essential class- ification criterion. The remaining factors were combined into three similar groups: 44 1 Less than 50% swamp or marsh and sparse to moderate vegetation. II Greater than 50% swamp or marsh and sparse to moderate vegetation, or Less than 50% swamp or marsh and abundant vegetation. III Greater than 50% swamp or marsh and abundant vegetation. The classification Criteria selected are not without ecological significance. The selected criteria are in some respects like the vegetation of a climax region in which the life form of the dominant species is definitely a product of the environment.12 Owing to the selection of natural class- ification criteria, it is highly probable that they reflect the end result of all the various chemical, physical, and biological factors that are in constant interaction to pro- duce the environment known as a lake community. The three groups developed formed the basis for classifying the lakes inventoried. The classes were abbrevi- ated as follows: Class I Lake - Less than 50% and S—M Greater than 50%, or Less than 50% and S-M and A Class 11 Lake Greater than 50% and A Class III Lake The classification of the forty-eight lakes inventoried is 13Henry J. Oosting, The Study of Plant Communities (San Francisco: w. H. Freeman and Company, 1953), pp. 211- 233. 45 given in Table XII. The Class I lakes typically provide the greatest overall recreational use as defined in the study or indicate the greatest use potential. The Class III lakes provide the lowest overall use or indicate the lowest use potential. The characteristics of Class 11 lakes are not so readily defined except to the extent that they lie between the low and high use classes. Class 11 lakes with relatively large surface areas tend to assume the character of Class I. More available cottage sites, moderate aquatic vegetation, good fishing, and suitable areas for boating and swimming are the general aspects of Class I lakes. Class III lakes usually rank lower in all these aspects, and the lake basin is frequently in a late ecological succession stage. Classification Use. The classification system developed is based on natural factors. The particular type or class a lake lies in, therefore, does not necessarily indicate a high degree of existing develOpment. Rather, develOpment potential may be indicated. The lakes inventoried and classified amount to 25%% of the total number in Jackson County. The diversity of lakes studied and the extent of the sample appear to justify the application of the classification system to all the lakes of the county. The classification should aid in the 46 TABLE XII CLASSIFICATION OF 48 LAKES IN JACKSON COUNTY Class I Class II Class III Clark Ackerson Batteese Clear Lime Brill Crispell Lime, North Cranberry Farwell Pond Lily (34A.) Cranberry, Little Gillette Portage, Little Fink Grass Trumbull Freymuth Olcott Vineyard Goose Pleasant Hoffman Portage Horseshoe Price Leeke Round (45A.) ‘ Lutz Round (66.5A.) Merkle Round (155A.) Mud Stony Olcott, Little Swains Pond Lily (67.5A.) Sweezey Schoolhouse Vandercook Tims Wamplers Wilbur Welch Walz White Wolf Wolf, Little 47 future develOpment of surface water resources in the county, since the three lakes classes reflect the relative intensity of use or indicate the relative use potential possible. The classification would be a helpful guide for zoning procedures and management methods desired. Lakes previously unsurveyed can be Classified under the system developed quite easily. The preliminary estimate of per cent of shoreline in swamp or marsh can be determined from aerial photographs. Since the preliminary estimate may only indicate the extent of organic soil types, rather than actual marsh or swamp conditions, a field check is necessary so the estimate can be verified and the abundance of aquatic vegetation in the shoal be determined. V. SUMMARY An inventory of selected lakes in Jackson County was undertaken in the summer of 1958. The purpose of the inventory was to furnish data that would form the basis for a recreational classification of such lakes as an aid to planning and future development of surface water resources. Based on natural factors, three lake classes were developed. Class I - Those lakes exhibiting the greatest overall recreational development or the greatest overall potential for recrea- tional development. Class II - Those lakes intermediate between the characteristics of Class I and Class II. Modifying factors, especially area in excess of 100 acres, cause these lakes to assume the qualities of Class 1. Class III - Those lakes exhibiting the lowest over- all recreational development or the lowest overall potential for recrea- tional development.' Further study is needed to determine if this classi- fication is applicable to all areas of the state or to other regional locations. BIBLIOGRAPHY 50 BIBLIOGRAPHY Books Field Manual of Soil Engineering. 3rd ed. Lansing: Michigan State Highway Department, 1952. Forel, F. A. Le Leman. Monographie Limnologique. 3 vols. Lausanne, Switzerland, 1892. Needham, James G., et al. A Symposium on Hydrobiology. Madison: Univers1ty _of Wiscons1n Press, 1941. Oosting, Henry J. The Study 3: Plant Communities. San Francisco: W. H. Freeman and Company, 1953. Scott, I. D. Inland Lakes of Michi an. Publication 30, Geological Series 25. Lan51ng: M1chigan Geological and Biological Survey, 1920. United States Department of Agriculture. Climate and Man. Yearbook of Agriculture. Washington: Government Pr1nting Office, 1941. Veatch, J.O . Soils and Land of Michigan. East Lansing: Michigan State College Press, 1 53. Welch, Paul S. Limnology. 2nd ed. New Ybrk: McGraw-Hill Book Company, Inc., 1952. Welch, Paul S. Limnolggical Methods. Philadelphia: Blakiston Company, 1948. Reports Booth, Alfred w. The Lakes gf_the NOrtheaStern Inland Empire. Bulletin No. 5. Pullman, Washington: State College of Washington, School of Economics and Business, 1948. Brown, C. J. D. Lake Names. Michigan Department of Conservation Miscellaneous Publication No. 2. Ann Arbor: Institute for Fisheries Research, 1944. 51 Davis, H. S. Instructions for Conductino Stream and Lake Surveys. Washington: Government Printing Office, 1938. Fish For More Fisherman. Lansing: Michigan Department of Conservafion, 1955. Fish Planting_Record. Lansing: Michigan Department of Conservation, D1vision of Fisheries, 1953-1958. Humphrys, C. R., R. N. Horner, and J. H. Rogers. Shoretype Classification Lf Van Buren Coungy, Michiaan. Shoretype Bulletin No. 2. *East Lan51ng: Michigan State University, Department of Resource Development, 1958. Our Vanishing Shoreline. A Report by the United States Department "of“ the Interior, National Park Service, 195_ . Roelofs, Eugene W. Water Soils Lg Relation 33 Lake Productivity. Technical—Bullet1n 190. East Lansing: Michigan State College, Agricultural Experiment Station, 1944. Veatch, J.O ., F. W. Trull, and J. A. Porter. Soil Survey Lf Jackson County, Mighigan. United States Department of Agriculture, Number 17. Washington: Government Printing Office, 1926. Articles Beckman, William C. "A Look at a Lake,"Michigan Conservation, Vol. XVI, No. 6, July, 1947. Bowers, Neal M., Kenneth C. McMurry, and Katherine M. Stahl. "Lake Shore Inventory and Classification," Papers Lf the Michigan Academy Lf Science, Arts, and Letters, 27: 337- 344, 1942. Brown, C. J. D. "How Many Lakes in Michigan,” Michigan Conservation, 12:5-6, 1943. Brown, C. J. D., and O. H. Clark. "Winter Lake Mapping," Michigan Conservatign, February, 1939. Hooper, Frank F. "Some Chemical and Morphometric Character- istics of Southern Michigan Lakes," PapersL of the Michigan Academy Lf Science, Arts, and Letters, 41 :109- 130,1956. 52 Lievense, Stanley. "When Ybu Fish--Pick the Right Lake," Michigan Conservation, Vol. XXVII, No. 2, March-April, 1958. McMurry, K. C., R. W. Eschmeyer, and C. M. Davis. "Objectives and Methods in the Lake Inventory in Michigan," Pa ers Lf the Michigan Acade_y pi Science, Arts, and Letters, 18: 259-2 76, 1933. ‘__ Miller, Donald E. "Michigan Lake Survey--A Cooperative Enterprise," Transactions 9: the American Fisheries Society, Vol. 66, 1936. Pennak, Robert W. "Some Aspects of the Regional Limnology of Northern Colorado," University 2: Colorado Studies, Series D, 2:263-293, 1945. Roelofs, Eugene W. "Available Plant Nutrients in Lake Soils," Michi an Agriculture Expgriment Station Quateriy EuIlet1n, Vol. 22, No. 4, pp. 247-254, 1940. Veatch, J. 0. "Soil Profiles in Relation to the Recession and Extinction of Michigan Lakes,” Soil Science, Vol. 50, No. 2, August, 1940. Welch, Paul S. "A Limnological View of the Inland Waters of Michigan," Fifty35econd Annual Report Lf the Michigan AcademzL of Science, Arts, and Letters, pp. 19- 36, 1950. Unpublished Material Humphrys, Clifford R. "The Evaluation of Physical Factors in Relation to Land Use: A Study of Gogebic and Onto- nagon Counties, Michigan." Unpublished Ph.D. thesis, Michigan State College, East Lansing, 1952. "Jackson County Water Resources Data." Lansing, Michigan Water Resources Commission, (n.d.). Jewell, William F. "A System of Inventory for the Shore- zones of the Great Lakes." Unpublished Master's thesis, Michigan State College, East Lansing, 1947. Lakin, H. D. "Proposed Stream Classification Law for Michigan." Unpublished paper, Michigan State University, Department of Resource Development, East Lansing, March 20, 1957. (Mime ographed). 53 Maps Aerial photographs. County symbol BDV (Jackson County), United States Department of Agriculture, Commodity Stabilization Service, 1956-1957. lackson Count . Lansing: Michigan Department of Conser- vation, 1957. [ackson County Farm Plat Book. Rockford, Illinois: RockTOrd Map Publishers, 1957. Jackson (1939), Manchester (1949), Rives Junction (1921), Spring Arbor (1949), Springport (1921), and Stockbridge (1922) Quadrangles. Washington: U. 8. Geological Survey. Lalce Inventory Maps. Ann Arbor: Institute for Fisheries. Research, biichigan Department of Conservation. Martin, Helen M. yg2_of the Surface Formations of the Southern Peninsula of Michigan. Publication—Z9T_- Lansing: Department of Conservation, Geological Survey Division, 1955. Road Map of Jackson County Michigan. Jackson: Board of County _Road Comm1551oners, 1958. Snowfall Contour M 2. Winter of 1956-57. Lansing: Michigan State Highway Department. APPENDIX A LAKE INVEN'IORY SCHEDULE 55 Date ,Name of Lake Approadmate Area County location: '1bwn____, Range—J Sec. Distance from , by ‘ '-___—wan. Miles & Direction. -Kihfi_3?kRoad Distance to Nearest Road Fed by' Drained by Landlocked Yes or No Length of Shoreline ft. Maidmum Depth ft. Predominant Bottom Character Estimated Abundance of Vegetation in Shoal Area ~, ; Emergent Floating #_§fihmergent Overall Abundance of Peripheral Aquatic Vegetation “__ Per Cent of Shoreline ‘ Bordered by Swamp or Harsh _‘JUpland g_,0ther Character of Upland Description of Upland Vegetation Per Cent of Shoreline in Cottages ,Club or Resort Ownership , Public Areas ,Farm Land ,Unimproved & Unoccupied , Other Ownership Status [:1 Public, [3 Semi-Private, E] Private Dominant Fish Species .__ Scenic Features Use: None Slight Rbderate Intensive 33:11:13: 8 B D B SwimmiDg D D 0 ‘Water Color ___Natural Obstructions__f ;¢_ Evidence of Pollution or Turbidity g#_, Upland_ri ‘g_ Soil Type: marginal;fif 56 Bathing Beaches: Type of Bottom Approximate Distance to rim—x1e Foot Depth ft? Public Areas Boat Liveries Tent and Trailer Camps, Campgrounds (other than Public) Resorts or Resort Hotels cabins and Motels Grocery Stores, Gas Stations, Taverns, Other NOTES APPENDIX B O )- .13 o: S 9; . EATON RAPIDS EATON co. ! INGHAM LIVINGSTON CO. LODNIS L 6 . d 8 “my 0 \ "o 94 ‘2 3'94 A I7 Elli/6 L 25 fflUMEUL L 2 . (POP 593) E T NENRIETTA STATION 26 92° '20' _. to ANN ARBOR T. 2 S. 5 4 BROOKLINE W" °‘°"’ mass :9 ”"16 42'-Io' Y0 woven NINEAN CALHOUN WASHTENAW CITY HILLSDALE . . ' ' . . CO. LENAWEE (POP. 50!) R.| E. 4'- ' . 3 2° l4'-Io T0 CLINTON I TO «9‘03» _+_ LOCATION OF LAKES INVENTORIED AND CLASSIFIED KEY TO COUNTIES MAP I EICKSON \" i v"“"\' r3: ’i ii“ .1 “HE’S _,.. 1': 5’19. I’S CH 3' TH vii In :55: '""' L .13! “our yr; :1 .31: I 1- us i “'1‘ LII. 2‘1 I All' In“, " " u: a! -'«'r .>{ I .' 3: ‘*, .o I i .. J, V 5593‘ :' \ _:l”\;_.‘ ‘h: "39: the” ":7,“ “in: “My: II 33" 3.59.: “It- ‘3':- (“m- who.” I ’li. .; PUBLIC OWNERSHIP in “on, 54°-30 AT N I - I ' .' ,7 ‘ ' R2540“3K DANSVIL‘EE 59 JACKSQEABEQUNTY E O , 99 .. , _ . , MICHIGAN 0- DEPARTMENT OF CONSERVATION U CARLA? 1.. gr e4°-2o’ ¢ G4°-IO' ~J LESLIE c5 CD/FF/TH U YOU COULD NOT ENJOY THE CLEAN WHOLESOME RECREATION OF THIS COUNTY IF ITS 593§§1§ VERE BURNED OVER ITS §13§Ag§ VERE POLLUTED ITS CAMP SITES VERE UNSANITARY AND IF RIDIAN THERE WERE N0 GAME 0R FISH HENRIETTA STATIgN KEEP MICHIGAN CLEAN AND GREEN REPORT FOREST FIRES AND RETURN NEXT YEAR MINARD ‘ t ‘ -—- L LGEND ' 42°-20’ STATE LANDS DEDICATED FOR STATE FORESTS. PARKS AND OTHER PUBLIC CONSERVATION USES. BOUNDARY STATE FORESTS. PARKS. ETC. * .PUBLIC FISHING SITES. 9 SITE NOT USABLE I FOREST CAMP GROUNDS. ACOUN TY PARKS. ’ V, G ' '-:;:_~:I:3. :-:-" " Morrnv .;.STATE HOLDS EASEMENT FOR PUBLIC FISHING ALONG STREAM I I .2. ,3 L To ANN ARBOR BANKS OVER THE 40 ACRES INDICATED. - T25. IT Is THE POLICY NOT T0 DISPOSE OF STATE LANDS IN STATE 0R NATIONAL PROJECT AREAS. EXCEPTIONS MAY BE MADE IN CERTAIN CASES WERE THE LANDS ARE DESIRED FOR AGRICULTURE OR To CON- SOLIDATE owNERSHIP. FOR FURTHER INFORMATION INOUIRE LANDS DIVISION. DEPARTMENT OF CONSERVATION. LANSING 26. MICHIGAN. LEGEND T25. ROADS WATERWAYS 2 ”II m NITIVE no“, ______ AIRPORT O .93 UNIMPROVED no ------ OPERATED SHIP AND DARGE "k — ‘- DRADED AND ”ism *g LINES -—--n ‘ " ' |'—' g WL SURFACED ROAD :2: DOCK. PIER OR LANDING w = a new. 5 ROAD m m a m a 8mm URFACED ROAD m FREE FERRY :IFH: Lu — = “Views? SURFACED ROAD .m TOLL FERRY :‘I-TFAf: #- m N 8 AD — h .— ' _ _,_Q ------ 63 N HEAD OF NAVIGATION (mm...) ' ”__ z m— 3 H .. -‘ :3 EM DESIGNATION NAVIGABLE STREAM ,4 a WWII) ms Ll-l STATES HIGHWAY E73 L” 5 GENERAL CULTURAL FEATURES m U STATE HIGHWAY SYSTEM A... .227. “- “um A FARM UNIT . o “DEM. IO NIGHWAV SYSTEM FA DWELLING (OTHER THAN FARM) u u sv“WAIT: SECONDARY HIGHWAY Rows OR GROUPs OF DWELLINGS “a“ ”s (CLOSELY SPACED) #- é: um VEDERAL AID 4m sTORE OR SMALL BUSINESS GNATED ROUTE ‘1 ESTABLISHMENT I. [5 SEASONAL DWELLING L A SEASONAL DWELLINGs (CLOSELY .1. A | RWAYS SPACED) MR Rom POST OFFICE i ‘5 —--§—¢——— TOWNHALL. GRANGE DR T. 3 5 ARM COMMUNITY HALL I I5 T. 3 S. “MANAVY OR MARINE CORPS FIELD © HOTEL L & lNTR‘IMENT OF COMMERCE CHURCH ©THER RELIGIOUS COMERMEDIATE FIELD O INSTITUTIONS) i C] WHERCIAL on mmcmL HELD O SCHOOLHOUSE (OTHER I‘ KEo AUXILIARY FIELD EDUCATIONAL INSTITUTIONS) i D :zLANE LANDING FIELD MARKED CORRECTIONAL INSTITUTION rm EM[AGENCY HOSPITAL "I ‘33 FACTORY OR INDUSTRIAL PLANT J A RAILROADS SAWMILL (STATIONARY) A a ”@1355 LA RAILROAD POWER PLANT I USED 3y 5 NY "UMBER TRACKS) —-I—+—-I— RADIO STATION i LR D (ANGLE OPERATING COMPANV STATE ROAD GARAGE 3 USED Iv MI: NUMBER TRACKS) F‘=P=‘==‘=I SEASONAL INDUSTRY ‘5 COMPAN E THAN o“- OPERATING MINE SHAFT :1 . , RIGH'rs 3:0: SAME 0“ WAGE“ OPEN MINE 53‘ 42—") AV T RAILRDAo (Non TRACKAGE R'Gmg GRAVEL PIT I To HOMER 42%“): FRIVATELV o I mm“ + + + STONE QUARRY V WNED Iuno- “an -—I— __ _A_ " — - _ I“II-ROAD s1- STOCK YARD [I ——————————— M ATIDN I 00° HORTON Mom 5” OIL OR GAS WELLS oo RA DE CROSSING _._"_,_ ILROAD A30 WELL @RINE) o. . M V: ROAD _,__«£__,_ . u I “-3vo BELOW m TANKS ... ”'LRDAD TUNNEL ' ’“"“‘ CLUBS (GO—GOLF OR COUNTRY CLUB. ‘H‘TH— H.C.—HUNTING CLUIF. F.C.-FISHING HIGH CLUB, S.c.-GUN CLU ) WAY BRIDGES ATHLETIC FIELDS OR AMUSEMENT A (20 To 300 F PARKS, PLAYGROUNDS. ETC. GENERAL T’ LENGTH) INTENSIVE RECREATION AREAS A 7’0 M‘NCHEST 9““le =53: SMALL PARKS (SR-STATE, 5" (so: 23*: (LR-COUNTY, M.P.—MUNICIPAL) GEN 0 FT. LENGTH OR OVER) FAIR GROUND, RACE COURSE, “AL : I SPEEDWAY Q DIIAVIIIRIDGI: 2”“: CEMETERY ' I-) SPENSIDN can. STATE POLICE SUBSTATION * ”V ARCH "— INDIAN RESERVATION 4 Tags: on Gm: —1—’#= CAMP OR LODGE A R 2%,: $3” 53“”. 2 I 4 S T 45 DAMS URI CAM . . PICNIC GROUNDS OR ROADSIDE TABLE A g “”4 Mm ROAD I BATHING BEACH A HANgVER ““4 wn SCENIC SITE [1 ‘ HOUT ROAD 4%- BIRD SANCTUARY 9 CITY AND VILLAGE GAME FARM 9 m7 GAME PRESERVE Q :TWITOL ® FISH HATCHERY E 3 0mm" SEAT O c c c - CAMP 15 Z CITIES AND VILLAGES O LIGHT (NAUTICAL) 3X 3 < l LIGHTHOUSE fi 0 Z IMTED cm, 0,, “Lu“ as; _, .. AIRWAY BEACON LIGHT * I LAJ -- LANDMARK LIGHT BEACON *. I... u." FOREST RANGER STATION 5 .J I Como“MED COMPACT FOREST SERVICE LOCKOUT STATION 0 < (I) g GAUGING 0R PUMPING STATION 8 U < ROADSIDE SPRING 1: FOREST NURSERY-EXPERIMENTAL ””5"” 3 STATION 0 U.$.C.G. STATION . U.s. LIFE SAVING STATION I NDA I.I ES ARE 5 TO IGNATE THE LI ITS OF- I PIPE LINE. GAS m-u—om— HlLLS DALE R.3W. CONSERVATION PROJECTS. ONLY COLOREQQZW R [W CO LENAWEE ACKSOAIST "W‘Lmh°“- ~~mL~~ AREAS ARE PUBLKILANDS. - ' - - ATE OWNERSHIP JUNE I, 1957 Ri'E' M A P 2 R25. ’ \E‘REEVBYl/IICHIGAN STATE HIGHWAY DEPARTMENT H E L P UNMMRFD AREAS ARE PRIVATE LANDS" P R E V E N T F O R E S T ~ “('1 IRES 0/ \\’/ INSTITUTE FOR FISHERIES RE LAKE INVENTORY MAP AREA-695- ACRES OUTLINE AND SOUNDINGS s/I JACKSON COUNTY 9/I2-I4/I940 T. 4 SWAINS LAKE U// \I//\ SEARCH (9 ® _ I ,. DIVISION OF FISHERIES MICHIGAN CONSERVATION DEPT. (III l/ll \ {x IH‘ 9/40 I \u/ ‘- 5.,R.3W.,5EC.3,4 \\\\ ® \u/ / 656E / a J .1 JACKSON co. 'UILIC PAIR ~ IAYHOUSK @ I”, . covznzo 74ml: . IATHOUIE TWENTY-FIVE BRUSH SHELTERS IN 5 GROUPS OF 5,15 INSTALLED MARCH,I949. EACH GROUP OF 5 S ELTERS IS A ROW SET PARALLEL TO CONTOURS. \U/ I“! (III Ci) 0 \‘\\ I {III I\‘\ l\\‘ VEGETATION T Floating I Emergent - Submergent SHORE FEATURES = Road I Cottage -I Dock 2:. Grovel IIII Steep Slope Ii] Diving Tower N Brush 1.: Outlet \II/ Marsh tlnlet © CuItIVO‘I’cd land Posture or Cleared ® Wooded STATIONS @ VegeToTion [3; Temp. ochem. analysis 73R Plankton Bofiom sample ® F'Ish sample. 1:1: Brush shelTer MAP 3 SWAINS LAKE. Jackson Co.T.4$., R.3W., sec. 3,4 TABLE XIII 61 OWNERSHIP STATUS OF LAKES INVENTORIED AND CLASSIFIED* Public Semi - Private Private Clark Ackerson Fink Clear Batteese Cranberry, Little Crispell Brill Horseshoe Freymuth Cranberry Gillette Farwell Grass Goose Hoffman Mud Leeke Round (45A.) Lime Stony Lime, North Sweezey Lutz Tims Merkle Trumbull Olcott Welch Olcott, Little White Pleasant Wilbur Pond Lily (34A.) Pond Lily (67.5A.) Portage Portage, Little Price Round (66.5A.) Round (155A.) Schoolhouse Swains Vandercook Vineyard Walz Wamplers Wolf Wolf, Little *No responsibility is ace of the ownership status given. are based on personal judgment epted for the legal accuracy The interpretations listed and knowledge. 62 TABLE XIV JACKSON COUNTY LAKES PLANTED WITH TROUT* Farwell Hinman Lime Swains 1958 - — Brook Rainbow Rainbow 1957 Rainbow — - — 1956 Rainbow — Rainbow Rainbow 1955 Rainbow _ Brook Rainbow Rainbow 1954 Rainbow — Brook Rainbow Rainbow 1953 Rainbow Rainbow Brook Rainbow Rainbow *From fish planting records of Conservation, 1953-1958. of the Michigan Department 63 TABLE xv Juno! ovum urn mums mu“. (1) lalaad Lakee - Total nuaber 188. i'otal area 10.307 acree. luber leee than 200 acreo - 177. lore than 200 acree - ll. Largeet lake - 'a-plero (partially in Leanne county). 730 aeree. Otber large lakoe - Vinoyard. 56 acreo: Gillette. 350 acroo: Goooe. 398 acreo; Oraee. 3M acree: Portage. 360 acree: Ploaeaat. 269 acres: Olark. 580 acroe: and Volt. 376 acreo. Ialud Itreaao - (l) i'etal aileo of otreaao - 32!. Great liver drain about ROI equate aileo in county. Portage liver iraino about 103 «an nileo in county. lalaaaoee liver iraine about III «we ailee in county. laioia liver drain about 72 eqeare aileo in county. Ground 'ater - Unearvoyed. but oubetantial oupplioe. to-perature .bu‘ 51'e Peter Doll - Lt lrooklyu on the liver Raisin. (I) Ionicipal lupplieo - (All in otato are euporvioed by State Dept. of Health). Grace Lake. Jacteon. Iouthora lichigan State Prioon. lreoklyu. concord. and lpriaport fro- velle. (l) 'atereile lecreatioa Aroae (Itate) «- Public Iiabia‘ litoe - fetal of 17.2 acroo. 1.500 feet frontage on 2 lakee. Parke - moo. one-half aile fro-tap on la-plore Lake (partially in Woo and laohteau Oountieo). Iaterloe ltato leereatieu Area. 13,573 acreo. on Di; Portage Lake. 0. I. leather laroau Itatiea - Jaoteea - Average annual precipitation 31.56 inchee. I. I. leelogical hrvey'stro- Mu Station - Great liver at Jack-on (22 yoare of record) lax. iiecbarce - 1,070 cubic feet per eecend. Iia. “tonal-(e - 9.2 cubic foot per eeoeal. Avg. diooharge - 123 cubic feet per oeceal. Irriptioa - 23 Iyet-e irriptin; 1169 acres. 1 Coaeervatioa Depart-out Publications :2; lichigan Dopartaent of Health Records and Publication *Obtained from the Michigan Water Resources Commission in 1958. ., 2. l - . I '5 - n. .. 5‘": )r . .. "1- i la .' _I gr? . .. ' , g l _ I! "q I." L:):y:am\ , ‘U . mas—emu mg? 3' %:3 3W~MS€F .. Q. ” Ls