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HomeMy Public PortalAbout1999-09 Zoning MapORDINANCE NO. 1999- p AN ORDINANCE AMENDING THE GREENCASTLE PLANNING AND ZONING ORDINANCE BY AMENDING THE ZONING MAP WHEREAS, the Plan Commission of the City of Greencastle, pursuant to the Petition of CEI Engineering Associates, Inc. (Wal- Mart), has prepared this ordinance to amend the Greencastle Planning and Zoning Ordinance by amending the zoning map; WHEREAS, the Greencastle Plan Commission has reported that it held public hearings concerning this ordinance on May 24, 1999, after timely notice of the hearing was given by publication in the Balmer- Graphic Greencastle, Indiana on May 14, 1999 and on June 28, 1999, after timely notice of the hearing was given by publication in the Banner- Graphic, Greencastle, Indiana on June 18, 1999, WHEREAS, the Greencastle Plan Commission has reported that it paid reasonable regard to the following factors enumerated in IC 36 -7 -4 -603 in consideration of the Ordinance and determination of a recommendation to be made to the Common Council: 1. the comprehensive plan; 2. current conditions and the character of current structures and uses in each district, 3. the most desirable use for which the land in each district is adapted; 4. the conservation of property values throughout the jurisdiction, and 5. responsible growth and development. WHEREAS, the Greencastle Plan Commission has certified this ordinance to the Common Council with a recommendation by a majority vote in favor of adoption, WHEREAS, the Common Council has considered the recommendation of the Greencastle Plan Commission and has paid reasonable regard to the factors enumerated in IC 36 -7 -4 -603 before acting on this ordinance; WHEREAS, the Common Council has determined that this ordinance should be adopted without amendment as certified by the Greencastle Plan Commission. Therefore, BE IT ORDAINED AND ADOPTED BY THE COMMON COUNCIL OF THE CITY OF GREENCASTLE,INDIANA: SECTION 1. REZONING That the City of Greencastle Zoning Map, Chapter 10 -38 of the City of Greencastle Code, is hereby amended by changing the zoning classification for the following described real estate from from I1 (Light Industrial District) and I2 (General Industrial District) to C3 (General Business District): 22.2 acres located at 1800 East State Road 240, Section 23, Greencastle Township from It (Light Industrial District) and 12 (General Industrial District) to C3 (General Business District). Legal description attached. This ordinance takes effect upon passage. The Clerk - Treasurer of the City of Greencastle is ordered to have this ordinance published by inserting a copy of the ordinance in each of the two (2) sets of the City of Greencastle Code maintained on file for public inspection in the office of the Clerk- Treasurer. i THIS ORDINANCE was passed and adopted this /�x4ay of Z' = 1999. J Nan Yidi Pres '1 n Pamm Jones V Clerk- Treasurer Presented by me to the Mayor of Greencastle, Indiana, this ��a Y of 1999, at VII/ L� o'clock .m. e Approved and signed by me this day o'clock,/2-m. Z TE ST: i amm Jones v Clerk- Treasurer SYNOPSIS e 4&1 C' / / 1 Pamm Jones, Clerk-Treasurer of /(/ Gf ; 1999, at aney Mi hael Presiding Officer This ordinance amends the Greencastle Zoning Map, Chapter 10 -38 of the City of Greencastle Code to rezone Amendment to Zoning Map, Chapter 10 -38 of the City of Greencastle Code to rezone 22.2 acres located at 1800 East State Road 240, Section 23, Greencastle Township from 11 (Light Industrial District) and I2 (General Industrial District) to C3 (General Business District). Petitioner: CEI Engineering Associates, Inc. (Wall-Mart) Owner: John Sturgeon EXHIBIT A 0 The following described real estate located in the City of Greencastle, Putnam County, State of Indiana, to -wit: E is GREENCASTLE CITY PLAN COMMISSION DOCKET NO. 1999 -2 SUBJECT: Amendment to Zoning Map, Chapter 10 -38 of the City of Greencastle Code to rezone 22.2 acres located at 1800 East State Road 240, Section 23, Greencastle Township from I1 (Light Industrial District) and I2 (General Industrial District) to C3 (General Business District). Petitioner: CEI Engineering Associates, Inc. (Wal -Mart) Owner: John Sturgeon WHEREAS, the Plan Commission of the City of Greencastle, initiated and prepared the attached ordinance to amend the Greencastle Planning and Zoning Ordinance by amending the zoning map; WHEREAS, the Greencastle Plan Commission has reported that it held public hearings concerning this ordinance on May 24, 1999, after timely notice of the hearing was given by publication in the Banner- Graphic Greencastle, Indiana on May 14, 1999 and on June 28, 1999, after timely notice of the hearing was given by publication in the Banner- Graphic Greencastle, Indiana on June 18,1999; WHEREAS, the Greencastle Plan Commission has reported that it paid reasonable regard to the following factors enumerated in 1C 36 -7 -4 -603 in consideration of the ordinance and determination of a recommendation to be made to the Common Council: 0 1. the comprehensive plan, 1 current conditions and the character of current structures and uses in each district, 3. the most desirable use for which the land in each district is adapted; 4. the conservation of property values throughout the jurisdiction, and 5. responsible growth and development. WHEREAS, the Greencastle Plan Commission certifies this ordinance to the Cormtton Council with a favorable recommendation, subject to the conditions or commitments attached hereto and/or stated in the minutes of the Plan Commission, and incorporated herein and made a part of this certification. Dated this 28th day of June, 1999, GREENCASTLE CITY PLAN COMMISSION BY: • Presiding Officer ATTEST: _ Secretary E Wal -Mart 1962 -1 Greencastle, IN CEI project # 14665.0 Memorandum To: Bill Stoat By: Richard W. Rogers, RLA Senior Landscape Architect Corporate Office Date: 6121199 Distribution: JDG/JHNIFile Via facsimile: email bstout @ceieng.com & facsimile 770 - 424 -9282 Please find the following as a conceptual synopsis of the landscaping intent for the above captioned project: Along the entire western side of the proposed development, four to six canopy deciduous trees will be provided with a double row of deciduous or evergreen shrubs. The trees to be specified shall be installed by balled and burlaped with a minimum caliper size of 1 1 /2 ". An apparent appropriate mixture of species would be a Trident, Norway, and /or Red Maple. The shrubbery to be specified shall be installed in containers at a minimum five gallon size. An apparent appropriate mixture of genus would be Common Ninebark, Burning Bush Euonymus, Leatherleaf Mahonia or Viburnum, Spiraea, Mugo Pine, and /or Bayberry. This will provide an adequate screening effect within two to five years time. The shrubbery shall be maintained to a maximum height of six feet. The screen dimension shall exceed the required three foot width and six foot high stipulation as specified by designated zoning as it related to residential. C Along the eastern side, a similar arrangement of trees shall occur. However, shrubbery will be provided in alternating double and single rows of deciduous or evergreen shrubs. Plants specified shall be installed in containers at a minimum five gallon size and an apparent appropriate mixture of genus would be Creeping or Chinese Juniper, Common Boxwood, Cotoneaster and /or Evergreen Euonymus, to S maintain the three foot height restriction adjacent to public street rights -of -way and required side yard of a corner lot. This will also provide an adequate screening effect within two to five years time. The shrubbery shall be maintained to a maximum height of three feet. • Along the northwestern corner, at the base of a secure fence for the storm water management area, a single row of evergreen shrubs will be provided. Plants specified shall be installed in containers at a minimum five gallon size and an apparent appropriate genus would be Evergreen Euonymus or Chinese Juniper to maintain the three foot height restriction in required front yards. • All other areas disturbed by construction shall be, at a minimum, seeded with an appropriate seed mixture consistent with the hardiness zone of the development, fertilized, and watered to maintain soil stabilization and reduce the chance for erosion. • All plant material and installation shall meet the American Association of Nurseymen standards. If you have any questions or concerns, please call. 0 TRAFFIC ANALYSIS Wal S - M.Iq 4 g z z' >,`p { ? g e E h Store No. 902-1 1 Located on SR 240,'/4 Mile East of Veterans Memorial Highway Greencastle, Indiana May 18, 1999 • Submitted to: CEI Engineering Associates Marietta, GA Prepared by: • TRAFFIC ENGINEERING GROUP USA Toll Free 1 -888- 252 -9962 0 11 Project Description A Wal -Mart shopping center is proposed on the south side of SR 240 in Greencastle, Indiana. Site access is proposed at two locations along SR 240. SR 240 is a 2 -lane facility with shoulders. The posted speed limit on LaPorte Avenue is 55 mph. The shopping center consists of a WaI -Mart commercial establishment with on -site parking sufficient to serve its own parking demands. The proposed shopping center also contains two outlots. Outlots are typically drive -in banks, retail stores, restaurants, or small offices. The total gross leasable area for the shopping center is 211,200 square feet. Traffic generated at shopping centers is based on gross leasable area. Data Collection Twenty -four hour traffic data was collected for SR 240. The following chart summarizes existing traffic volumes on SR 240. Begins EB WB Total 12:00 AM 34 139 173 1:00 AM 24 27 51 2:00 AM 10 32 42 3:00 AM 22 23 45 4:00 AM 72 13 85 5:00 AM 233 78 311 6:00 AM 517 219 736 7:00 AM 312 400 712 8:00 AM 230 276 506 9:00 AM 222 226 448 10:00 AM 240 309 549 11:00 AM 276 318 594 12:00 PM 358 323 681 1:00 PM 287 264 551 2:00 PM 376 368 744 3:00 PM 414 567 981 4:00 PM 356 434 790 5:00 PM 345 416 761 6:00 PM 304 434 738 7:00 PM 216 301 517 8:00 PM 215 181 396 9:00 PM 127 109 236 10:00 PM 122 91 213 11:00 PM 65 119 184 TRAFFIC ENGINEERING GROUP 2 1.888- 252 -9962 s Trip Generation Trip generation data was obtained from Trip Generation e Edition Data from over 650 shopping centers serve as the basis for generating trip volumes for this project. Trip generation is based on the gross leasable area for the development. The following table illustrates the composition and square footage for this shopping center. Wal -Mart Store 183,200 Outlot 1 14,000 Outlot 2 14,000 Total Square Feet 211,200 Based on a shopping center development with 211,200 square feet of gross leasable area, the following traffic volumes can be expected. Note that shopping centers draw a certain percentage of traffic from the existing traffic (i.e., "passby" traffic) and therefore not all trips tabulated below are "new trips ". For this particular shopping center, this percentage is estimated at 25 %. Percent Volume Trips Entering Exiting Entering Exiting Weekday 11,024 50% 50% 5,512 5,512 PM Peak 1,028 48% 52% 493 535 Trip Distribution Trip distribution was based on existing traffic volumes. This distribution is illustrated below. Applying site traffic distribution percentages to site traffic volumes yields the following overall site traffic volumes projected for peak hour conditions: SR 240 -4 42% Peak Hour Trip Distribution 3:00 -4:00 PM Shopping Center Traffic 3:00 -4:00 PM 9 ' hlstitute of Transportation Engineers, 1997 TRAFFIC ENGINEERING GROUP 1 -888- 252 -9962 —4 � SR 240 E Overall site traffic volumes can be furthered distributed to each entrance to predict exiting and entering turning movements. The net impact of this distribution process is summarized below. Note that the traffic volumes presented below represent site traffic. Note: Values shown represent vehicles per hour entering/ exiting each access point C Distribution of Peak Hour Site Traffic Above graphic illustrates traffic ENTERING AND EXITING the Site Values shown in terms of Vehicles per Hour 11 TRAFFIC ENGINEERING GROUP 1- 888 - 252 -9962 4 Level of Service Analysis Main Entrance at SR 240 The net traffic volume at each intersection and entrance to be analyzed is the summation of existing traffic volumes plus site traffic at that location. Additionally, these volumes must be adjusted for "pass -by" traffic. Pass -by represents that portion of site traffic already on the roadway. For this analysis, the percent pass -by is estimated at 25 %. The following table summarizes traffic volumes at the main entrance and SR 240 for level -of service analysis: Southbound Westbound Northbound _Eastbound R T L R T L R T L R T L 0 207 166 286 29 41 -105 -77 Using the above traffic volumes, the level of service for a signalized entrance is summarized below (see appendix). The 90% max queue value helps to provide an estimate of the maximum expected queue length (in feet) for each lane: The level of service analysis assumed the presence of auxiliary lanes satisfying current INDOT criteria. For this entrance, left and right turn lanes are required for both SR 240 and the shopping center driveway. 4 • • TRAFFIC ENGINEERING GROUP 1- 888. 252 -9962 EXISTING VOLUMES P LUS SITE TRAFFIC LOS 90% Max cycle =60 sec Queue (feet) Intersection B S Approach B RT B 111 LT B 191 E Approach B TH A 168 LT B 75 W Approach A RT A 25 TH A 137 The level of service analysis assumed the presence of auxiliary lanes satisfying current INDOT criteria. For this entrance, left and right turn lanes are required for both SR 240 and the shopping center driveway. 4 • • TRAFFIC ENGINEERING GROUP 1- 888. 252 -9962 " The overall level of service for this future signalized intersection is `B ". This is acceptable provided proper design of vehicle storage length and deceleration length is incorporated into the intersection. Auxiliary Lanes The length of turn lanes are a function of speed limit and comprised of two elements: 1. Storage length required for vehicles during peak hour conditions 2. Deceleration length needed based on speed limit Based on the level of service analysis, the westbound left turn storage length should be 75 feet. Additionally, approximately 550 -600 feet of deceleration length is required. Therefore, the westbound left turn lane should be approximately 625 -675 feet with a 100 - foot taper. Similarly, level of service analysis suggests a northbound right turn lane of 111 feet for storing vehicles. Additionally, approximately 135 feet of deceleration length is required. Therefore, the northbound right turn lane should be approximately 246 feet with a 100 - foot taper. Deceleration for an eastbound right turn lane is not warranted due to the availability of a " secondary entrance to the west. However, a taper is recommended to help facilitate any potential right - turning traffic. Secondary Entrance at SR 240 A secondary entrance is proposed approximately 585 feet west of the main entrance. The peak hour right turn volume is estimated at 257 vehicles. The existing eastbound volume is 414. Based on these volumes, a right turn lane should be provided. The length of the right turn lane is a function of speed limit. For a speed limit of 55 mph, INDOT requires 550 -660 feet of deceleration with a 100 -foot taper. Storage length will not be required since this a free - flowing type entrance. The unsignalized level -of- service for this entrance is `B" for the exiting right -turn movement (see appendix). The expected maximum queue length for this lane is one vehicle. 0 TRAFFIC ENGINEERING GROUP 1. 888 - 252 -9962 Traffic Signal Warrant 0 Traffic signals should not be installed unless one or more of the primary signal warrants are met. The primary signal warrants include: • Warrant #1 — Minimum Vehicular Volume • Warrant 92 —Interruption of Continuous Traffic • Warrant #3 — Minimum Pedestrian Volume Warrant #1 — Minimum Vehicular Volume This warrant is intended for application where the volume of the intersecting traffic is the principal reason for consideration of signalization. The warrant is satisfied when, for each of any eight hours of an average day, the traffic volume on the major street and on the higher volume minor street exceed certain threshold values. These major street and minor street volumes are for the same 8 hours. In this instance, because the major street traffic exceeds 40 mph, threshold values are reduced 30 %. The threshold volumes are. 350 for the major approaches (both directions) and 105 for the minor approach (one direction). In this instance, State Road 240 is considered the major street and the Shopping Center entrance is the minor street. The following chart summarizes traffic volumes at the proposed main entrance. Hourly traffic distribution for SR 240 is based on existing patterns. The hourly distribution for shopping center traffic is based on historical data per ITE Trip Generation Manual. Warrant 41 is satisfied for eleven hours, therefore, a traffic signal is warranted at this location. Additionally, due to the proximity of this entrance to an existing traffic signal on SR 240 at Veterans Memorial Highway, located approximately 1 /4 mile to the west, signal interconnection should be considered. 0 TRAFFIC ENGINEERING GROUP 1- 888 - 252 -9962 Entrance Warrant #1 Satisfied? Begins SR 240 NBL NBR Total NB SR 240 Entrance 10:00 AM 549 258 150 408 YES YES 11:00 AM 594 296 172 468 YES YES 12:00 PM 681 327 190 517 YES YES 1:00 PM 551 300 174 474 YES YES 2:00 PM 744 272 158 q30 YES YES 3:00 PM 981 265 154 419 YES YES 4:00 PM 790 283 164 447 YES YES 5:00 PM 761 286 166 452 YES YES 6:00 PM 738 269 156 425 YES YES 7:00 PM 517 289 168 457 YES YES 8:00 PM 396 162 94 256 YES YES 9:00 PM 236 62 36 1 98 1 NO I NO Warrant 41 is satisfied for eleven hours, therefore, a traffic signal is warranted at this location. Additionally, due to the proximity of this entrance to an existing traffic signal on SR 240 at Veterans Memorial Highway, located approximately 1 /4 mile to the west, signal interconnection should be considered. 0 TRAFFIC ENGINEERING GROUP 1- 888 - 252 -9962 Traffic Signal Interconnection The firm of D.L. Savage Engineering, Inc. performed system operation analysis for the proposed traffic signal (see appendix). The analysis was performed assuming that the Wal -Mart entrance will line up with an existing driveway or street entrance to the north. The analysis determined that opposing left turns should be planned for the shopping center entrance and that during certain time periods, traffic flow on US 240 will actually perform better without coordination of the traffic signals. The analysis recommends time -based coordination capabilities between the new signal and the existing signal at SR 240 and Veterans Memorial Highway. Furthermore, the analysis recommends the new signal be fully actuated and that the eastbound approach to Veterans Memorial Highway be actuated as well to minimize delay during periods of non - system operation. Accident Analysis Crash Location reports were evaluated for the years 1994 thru August of 1998. With the exception of one or two deer strikes, no accidents were recorded within 1 /2 mile of the proposed shopping center entrance (see appendix). Conclusions The primary entrance to the shopping center should include left and right turn lanes for each approach. The eastbound right turn lane need only be a standard taper due to the presence of a secondary entrance located to the west for right - turning traffic. This secondary entrance is located approximately 500 feet west of the primary entrance. This entrance will serve right- turning vehicles (only) entering and exiting the site. This entrance will require a standard right turn lane for entering traffic and one exiting lane (for right- turning traffic). The primary entrance should be signalized with time -based coordination equipment compatible with the existing signalized intersection at SR 240 and Veterans Memorial Highway, located approximately 1 /a mile to the west. The signal should also be fully actuated and detection should be installed for the eastbound approach at Veterans Memorial Highway to minimize delay during periods of non - system operation. TRAFFIC ENGINEERING GROUP 1- 888 - 252 -9962 " A] A B C D E " E TENDIX Level of Service Analysis  Primary Entrance Level of Service Analysis  Secondary Entrance Interconnect Analysis 1996 Annual Average Daily Traffic Crash Location Report TRAFFIC ENGINEERING GROUP i- 888- 252 -9962 Appendix I SR 240 at Main Entrance EBRT, WBLT, NBLT, NBRT SIGNAL94 /TEAPAC[V1 L1.41 - Display Of Intersection Parameters 0 .0 0 -- - - - - - - - - - - - { ------ --------------- 378 -- 12.0 -- 1 -- ---- 29 -------- ------ 12.0 - - 1 - --- \ LOSTTIME = 3.0 sec. 0 SR 240 at Main Entrance EBRT, WBLT, NBLT, NBRT 0 0 0 .0 0 0 286 12.0 1 SIGNAL94 /TEAPAC[V1 L1.41 - Capacity Analysis Summary Intersection Averages: Degree of Saturation (v /c) .47 Vehicle Delay ------------------------- Sq 11 1 Phase 1 1 Phase 2 1 * * / ** ------------------- - - - - -- 04/19/" 16:29:1 7.0 Level of Service E T < v North <* +> + + + +> v * + V ------------------------- G /C= .271 G /C= .596 G= 16.3" G- 35.7" Y +R= 4.0" Y +R= 4.0" OFF= .Oo OFF =33.80 ------------------------- C= 60 sec G= 52.0 sec = 86.7- Y= 8.0 sec = 13.3o Ped= 04/19/9c 16:29:Of Key: VOLUMES -- . WIDTHS v LANE,' -------------------- \ 0 .0 0 ------------- - - - - -- { \ -- 462 12.0 1 ------------------- / 207 12.0 1 North { ------- - - - - -- 0 166 Phasing: SEQUENCE 1: 0 12.0 PERMSV N N N i 0 1 OVERLP Y Y Y LEADLAG LD LI 0 sec = ' .0 Appendix A Lane Width /I g/C Service Rate Adj 513 HCM L 90 °s Max Group Lanes Reqd Used @C (vph) @E volume I v/c Delay S Queue ------------------------------------------------------------------------- *B+ 75 -- - - ft - - -- S Approach 12.9 B RT 12/1 152 .288 399 456 184 404 11.5 B 111 ft LT 12/1 .214 .288 1 ------------------------------------------------------------------------------- 1 451 1 509 1 318 .625 13.7 *B 191 ft E Approach 5.2 B+ TH 12/1 .306 .612 1125 1140 513 .450 4.2 A 168 ft LT ----------------------------------------------------------------------- 12/1 .456 1 .612 328 1 361 230 1 .637 7.4 *B+ 75 -- - - ft - - -- W Approach 3.6 A RT 12/1 .038 1583 1583 32 020 .0 A 25 ft TH 12/1 .258 11.000 1 .612 1125 1 1140 420 .368 3.9 1 A 137 ft 0 HCS: Unsignaiized Intersections Release 3.1a TWO -WAY STOP CONTROL(TWSC) ANALYSIS lnalyst: CMS Intersection: SR 240 at WalMart Entrance #2 Count Date: Time Period: Intersection Orientation: East -West Major St. Vehicle Volume Data: Movements: 2 3 4 5 --------------------------------------- volume: 414 257 0 567 HFR: 414 257 0 567 PHF: 1.00 1.00 1.00 1.00 PHV: 0.03 0.00 0.00 0.03 9 41 41 1.00 0.00 Pedestrian Volume Data: Movements: ------------------------------------- Flow: Lane width: ® Walk speed: % Blockage: Median Type: None # of vehicles: 0 Flared approach Movements: # of vehicles: Northbound 0 # of vehicles: Southbound 0 Appendix Lane usage for movements 1,2 &3 approach: Lane 3 Lane 1 Lane 2 L T R L T R L T R ------------------------------------------ N N N Y N N N Channelized: N Grade: 0.00 Lane usage for movements 4,5 &6 approach: Lane 3 Lane 1 Lane 2 L T R L T R L T R ------------------------------- -- ------ - - - - -- ------- N- - --- - Y - - -- N N N N N N N Channelized: N Grade: 0.00 Appendix ] Lane usage for movements 7,8 &9 approach: Lane 1 Lane 2 L T R L T R L N N Y N N N N Channelized: N Grade: 0.00 Lane 3 T R --------------- - - - - -- - N N Lane usage for movements 10,11 &12 approach: Lane 1 Lane 2 Lane 3 L T R L T R L T R ----------------------------------------------------------------------------------------- N N N N N N N N N Channelized: N Grade: 0.00 Data for Computing Effect of Delay to Major Street Vehicles: Length of study period, hrs: 0.25 ----------------------------------------------------------- Worksheet 4 Critical Gap and Follow -up time calculation. Critical Gap Calculations: Movement 4 9 Eastbound Westbound Shared In volume, major th vehicles: 0 0 Shared In volume, major rt vehicles: 0 0 Sat flow rate, major th vehicles: 1700 1700 Sat flow rate, major rt vehicles: 1700 1700 Number of major street through lanes: 1 1 Length of study period, hrs: 0.25 ----------------------------------------------------------- Worksheet 4 Critical Gap and Follow -up time calculation. Critical Gap Calculations: Movement 4 9 t c,base 4.1 6.2 t c,hv 1.0 1.0 P by 0.00 0.00 t c,g 2.2 0.1 G 0.00 0.00 t 3,it 0.0 0.0 t C, T: 1 stage 0.00 0.00 t c 1 stage 4.1 6.2 Follow Up Time Calculations: Movement 4 9 ------------------------------------------- t f,base 2.2 3.3 t f,HV 0.9 0.9 P by 0.00 0.00 t f 2.2 3.3 • ----------------------------- • Appendix Worksheet 6 Impedance and capacity equations Step l: RT from Minor St. ------------------- Conflicting Flows Potential Capacity Pedestrian Impedance Factor Movement Capacity Probability of Queue free St. Step 2: LT from Major St. 9 12 414 643 1..00 643 0.94 Conflicting Flows Potential Capacity Pedestrian Impedance Factor Movement Capacity Probability of Queue free St- ----------------------------------------- Worksheet 10 delay,queue length, and LOS 4 1 ---------------------------------------------- 671 929 1.00 929 1.00 --------------------------------------- - - - - -- Movement 1 4 7 8 9 10 ----- - 11 12 ----------- ------------ I ----- I II I I II I 41 v(vph) 643 C m(vph) 929 v/c 0.06 95% queue length 11.0 Control Delay B LOS Approach Delay 11.0 Approach LOS B - - - -- ----------------------------------------------- - Appendix System Operation Analysis Under system operation, two or more traffic signals work together with a common cycle length to allow platoons of traffic to move through the system with a minimum number of stops. Whether or not a group of signals work more efficiently as a system or as isolated intersections depends upon distances between signals, vehicle speed, traffic volumes and signal phasing. A preliminary analysis was made to examine whether or not a signal at the new Wal -Mart entrance should operate as a system with the adjacent signal to the west at Indianapolis Road and Veterans Memorial Highway. Teapac /Signal 94 software was used to determine optimum cycle length and Teapac /Nostop software was utilized to evaluate the efficiency of various cycle lengths based upon assumed 45 green bands and a distance between signals of 1320 feet (1/4 mile). Optimum cycle lengths for the PM peak hour were in the range of 60 to 70 seconds depending upon what signal displays are used for left turning traffic. For system operation, cycle lengths near 40 seconds or 120 seconds would be required to work efficiently. There will be some periods of the day when this would be practical, however it appears that at least part of the day, system operation should not utilized. Signal Phasing Level of Service during the peak hour for various treatments of SR 240 left turns are summarized below. S SR 240 left turn display Total Vehicle Delay Total Intersection LOS Permissive only 16 sec /veh C Protected /permissive arrow 10 sec /veh C Protected only arrow 26 sec /veh D If a permissive only or protected /permissive display is used, it is important that the left turn lanes be constructed to oppose each other so as allow adequate sight distance. Recommendations • I£ left turn lanes can be constructed to provide adequate sight distance, it is recommended that either permissive only or protected permissive left turns be used on Indianapolis Road (SR 240). This recommendation is subject to INDOT Crawfordsville District policies for left turn displays in this area. • Since it appears that system operation will not be effective during parts of the day, it is recommended that a fully actuated signal be installed. Time based coordination capabilities should be included in lieu of hard wire interconnection with Veterans Memorial Highway. • Vehicle detection should be added to the eastbound approach to Indianapolis Road & Veterans Memorial Highway to allow fully actuated control during hours of non - system operation. This becomes increasingly important as commercial development grows along this corridor. D. L. Savage Engineering, Inc. gai'8pendi}: 1W 240 at Main Entrance RT, WBLT, NBLT, NBRT SIGNAL94 /TEAPAC[Vl L1.41 - Display of Intersection Parameters 04/19/95 16:29: OE SR 240 at Main Entrance 04/19/9 EBRT, WBLT, NBLT, NBRT 16 :29:11 SIGNAL94 /TEAPAC[V1 L1.41 - Capacity Analysis Summary Intersection Averages: Degree of Saturation (v /c) .47 Vehicle Delay 7.0 Level of Service B; ------------------------- Sq 11 1 Phase l I Phase 2 * * / *< ------------------------- v North <* +> + - + +> V * + v ------------------------- ® G /C= .271 G /C= .596 G= 16.3" G= 35.7" Y +R= 4.0" Y +R= 4.0" OFF= .Oo OFF= 33.8 °s C= 60 sec G= 52.0 sec = 86.'76 Y= 8.0 sec = 13.36 Ped= 0 sec = .0` Key: VOLUMES -- , 0 0 1 WIDTHS .0 .0 .0 %r LANE,- 0 0 0 -------------------- \ 0 .0 0 ----- -- - - - - -- / \ ------------- - - - - -- / \ -- 462 12.0 1 0 .0 0 / + ------------------- / 207 12.0 1 North ------------- - - - - -- 378 12.0 1 -- ____----------- - ------------------- \ / ------- - - - - -- 29 12.0 1 \ -------------- - - - - -- 286 0 166 Phasing: SEQUENCE 11 12.0 .0 7 -2.0 ]?ERMSV N N N i\ LOSTTIME = 3.0 sec. 1 0 1 OVERLP Y Y Y 5 LEADLAG LD LL SR 240 at Main Entrance 04/19/9 EBRT, WBLT, NBLT, NBRT 16 :29:11 SIGNAL94 /TEAPAC[V1 L1.41 - Capacity Analysis Summary Intersection Averages: Degree of Saturation (v /c) .47 Vehicle Delay 7.0 Level of Service B; ------------------------- Sq 11 1 Phase l I Phase 2 * * / *< ------------------------- v North <* +> + - + +> V * + v ------------------------- ® G /C= .271 G /C= .596 G= 16.3" G= 35.7" Y +R= 4.0" Y +R= 4.0" OFF= .Oo OFF= 33.8 °s C= 60 sec G= 52.0 sec = 86.'76 Y= 8.0 sec = 13.36 Ped= 0 sec = .0` Appendix A Lane Width/ g/C Service Rate Adj Group I Lanesl Reqd Used I @C (vph) @F.. Volume v/c S Approach zICM I L 90 - Max Delay S Queue 12.9 B 0 RT 12/1 152 288 399 456 184 404 11.5 B 111 ft LT ---------------------------------------------------------- 12/1 .214 .288 451 509 318 .625 1 ----- 13.7 ---------- *B 191 - - - ft - -- E Approach 5.2 B+ TH 12/1 .306 .612 1125 1140 513 450 4.2 A 168 ft LT 12/1 .4:56 .612 328 361 230 .63'7 7.4 *B+ 75 ft W Approach 3.6 A RT 1 12/1 1 .038 1.000 1583 1583 32 .020 .0 A 25 ft TH -------------------------------------------------- 12/1 .258 .612 1 1125 1 1140 420 --------------- .368 3.9 -------- A 7.37 - - ft - - -- L_l 0 HCS: Unsignalized Intersections Release 3.1a TWO -WAY STOP CONTROL(TWSC) A14ALYSIS Analyst: CMS ® ntersection: SR 240 at WalMart Entrance # 2 Count Date: Time Period: Intersection Orientation: East-West Major St. Vehicle Volume Data: Movements: 2 3 ------ 4 - - 5 - - -- 9 ------------------------------------------------------ -------- - - - Volume: - -- - -- 414 - 25 7 0 567 n1 HER: 414 257 0 56`1 41 pHF 1.00 1.00 1.00 1.00 1.00 PHV: ---------------------------------- 0.03 0.00 0.00 0.03 ------ 0.00 - - - - -- Pedestrian Volume Data: Movements: tippendi: Flow: vane width: Walk speed: Blockage: Median Type: None # of vehicles: 0 Flared approach Movements: # of vehicles: Northbound 0 of vehicles: Southbound 0 Lane usage for movements 1,2 0 approach: Lane 1 Lane 2 Lane 3 L T R L T R L T -------------------------------------------------------- --------- --------------------------------------- - - - -- N Y N N N Y N N N Channelized: N Grade: 0.00 Lane usage for movements 4,5 &6 approach: Lane 3 Lane 1 Lane 2 L T R L T R L T ----------------- ---------------- ---------------- --------- - - - - -- Y N N N N N N ® Channelized: N Grade: 0.00 AppendiX 2 Lane usage for movements 7,8 &9 approach: Lane 1 Lane 2 Lane 3 L T R L T R L T R N N Y N N N N N N S Channelized: N Grade: 0.00 Lane usage for movements 10,11 &12 approach: Lane 1 Lane 2 L T R L T R N N N N N N Channelized: N Grade: 0.00 Lane 3 L T R N N N Data for Computing Effect of Delay to Major Street Vehicles: Length of study period, hrs: 0.25 Worksheet 4 Critical Gap and Follow -up time calculation. Critical Gap Calculations: Movement 4 9 Eastbound Westbound Shared In voltune, major th vehicles: 0 0 Shared In volume, major rt vehicles: 0 0 Sat flow rate, major th vehicles: 1700 1700 Sat flow rate, major rt vehicles: 1700 1700 Number of major street through lanes: 1 1 Length of study period, hrs: 0.25 Worksheet 4 Critical Gap and Follow -up time calculation. Critical Gap Calculations: Movement 4 9 ---------------------------------------- t c,base 4.1 6.2 t c,hv 1.0 1.0 P by 0.00 0.00 t c,g 0.1 G 0.00 0.00 t 3,1t 0.0 0.0 t c,T: 1 stage 0.00 0.00 t C 1 stage 4.1 6.2 Follow Up Time Calculations: Movement 4 9 ----------------------------------------------------------------------------------------- t f,base 2.2 3.3 • t r:,HV 0.9 0.9 P by 0.00 0.00 t f 2.2 3.3 y ppendi'- Worksheet 6 Impedance and capacity ecuations Step 1: RT from Minor St. ----------------- 0 nflicting Flows 414 otential Capacity 643 Pedestrian Impedance Factor 1.00 Movement Capacity 643 probability of Queue free St. 0_94 --------------------------------------- - - - - -- 12 -------------------------- - - - - -- Step 2: LT from Major St. --------------------------------------------------------- ----------- - - - - -- Conflicting Flows 671 999 Potential Capacity 1.00 Pedestrian Impedance Factor Movement Capacity 929 Probability of Queue free St. 1.00 --------------------------------------- - - - - -- Worksheet 10 delay,queue length, and LOS 1 ------------------------------ ------------------------------ Movement 1 4 7 B 9 10 - -- 11 12 ---------------------------------- --------------------- - - I II I I II I v(vph) 929 C m(vph) ' r1c ® 95% queue length Control Delay LOS Approach Delay 11.0 Approach LOS ----------------------------- -------------- - - - - -- 41 643 0.06 11.0 B • Appendix s System Operation Analysis A Under system operation, two or more traffic signals work together with a common cycle length to allow platoons of traffic to move through the system with a minimum number of stops. Whether or not a group of signals work more efficiently as a system or as isolated intersections depends upon distances between signals, vehicle speed, traffic volumes and signal phasing. A preliminary analysis was made to examine whether or not a signal at the new Wal -Mart entrance should operate as a system with the adjacent signal to the west at Indianapolis Road and Veterans Memorial Highway. Teapac /Signal 94 software was used to determine optimum cycle length and Teapac /Nostop software was utilized to evaluate the efficiency of various cycle lengths based upon assumed 45% green bands and a distance between signals of 1320 feet (1/4 mile). - optimum cycle lengths for the PM peak hour were in the range of 60 to 70 seconds depending upon what signal displays are used for left turning traffic. For system operation, cycle lengths near 40 seconds or 120 seconds would be required to work efficiently. There will be some periods of the day when this would be practical., however it appears that at least part of the day, system operation should not utilized. Signal Phasing Level of Service during the peak hour for various treatments of SR 240 left turns are summarized below. SR 240 left turn displa Total Vehicle Delay Total Intersection LOS Permissive only 16 sec /veh C Protected /permissive arrow 1.0 sec /veh C P rotected only arrow 26 sec /veh D If a permissive only or protected /permissive display is used, it is important that the left turn lanes be constructed to oppose each other so as allow adequate sight distance. lJ Recommendations C If left turn lanes can be constructed to provide adequate sight distance, it is recommended that either permissive only or protected permissive left turns he used on Indianapolis Road (SR 240). This recom�.aendation is subject to IHDOT Crawfordsville District policies for left turn displays in this area. a Since it appears that system operation will not be effective during parts of the day, it is recommended that a fully actuated signal be installed. Time eased coordination capabilities should be included in lieu of hard wire interconnection with Veterans Memorial Highway. ® Vehicle detection should be added to the eastbound approach to Indianapolis Road 6 Veterans Memorial Highway to allow fully actuated control during hours of non - system operation. This becomes increasingly important as commercial development grows along this corridor. D. L. Savage Engineering, Inc. Appeni O Greenfield Walmart Indianapolis Road & New Walmart Entrance Permissive lefts SIGNAL94 /TEAPAC[Ver 1.20] - Capacity Analysis Summary 05/18/99 12:26:06 Intersection Averages for Int # 2 - Indianapolis Road & New Walmart Degree of Saturation (v /c) 0.66 Vehicle Delay 16.0 Level of Service C+ ------------------------- Sq 11 1 Phase 1 1 Phase 2 1 * * / ** -- -- - - - -- — -- -- -- -- - - - --- + + + + + + + +1 /1\ 1<+ +> < + + + +1 f I 1 * * * *I I + + i -+ v I North I <* + >I + + + +> I I + * + I I G/C =0.212 I G/C =0.588 I G= 12.T' 1 G= 35.3" I Y4 -R= 5.0" I Y-FR= 7.0" OFF= 0.0% I OFF =29.5% I ------------------------- e C= 60 sec G= 48.0 sec = 80.0% Y =12.0 sec = 20.0% Fed= 0.0 sec = 0.0% -- - - - --- - -- - - -- I Lane (Width /1 g/C I --- - -- Service - -- - - Rate) Adj --- -- I I HCM --' -- - I L 190% Maxl I Group I Lanesl Reqd Used I @C (vph) @S IVolumel v/c I Delay I S I Queue I SB Approach 12.3 B ----------------------------------------------------------------------------- I RT 1 12/1 10.042 10.212 1 277 1 336 1 37 10.110 1 12.3 1 B 1 25 ft1 ILT +TH 1 12/1 10.038 10.212 1 315 1 376 1 37 10.098 1 12.3 1 B 1 25 ftl NB Approach 31.0 D+ - - - - -- -- -- I RT 1 12/1 10.167 10.212 1 --- - - - 277 1 - -- 336 - 1 207 - - - -- 10.616 1 16.2 1 C +1 138 ftl ILT +TH 1 12/1 10.236 10.212 1 315 1 376 1 357 10.949 1 39.5 I *D 1 237 ftl WB Approach 14.4 B I TH +RTI 12/1 10.417 10.621 1 1139 1 1153 1 728 10.631 1 5.4 1 B +1 232 ft1 I LT 1 1211 10.670 10.621 1 238 1 269 1 259 10.963 1 39.8 1 *D 1 83 ftl - - - - -- ------- ----- - - - - -- EB Approach 4.8 A e ______________________ I TH 1 12/1 10.308 10.621 1 1144 1 1157 1 517 10.447 1 4.0 1 A 1 165 ftl I LT 1 12/1 10.038 10.621 1 99 1 121 1 75 10.605 1 10.1 1 B 1 25 ft1 ------------------------------------------------ ------- ---------- ---- -- -- - - - - -- Append C Greenfield Walmart Indianapolis Road & New Walmart Entrance Protected lefts 05/18/99 12:33:21 SIGNAL94 /TEAPAC[Ver 1.20) - Capacity Analysis Summary Intersection Averages for Int 44 2 - Indianapolis Road & New Walmart Degree of Saturation (v /c) 0.77 Vehicle Delay 25.9 Level of Service D+ ------------------------------------- Sq 14 1 Phase 1 1 Phase 2 1 Phase 3 1 * + / ** ------------------------------------- 1 + + + 1 + + I + * * * *l /1\ 1 <+ +> I <+ < * * * *I I I I * * * *I I + + ++ v North I <* +>I +>1 + + + +> I I i * + I + I * + 1 + ------------------------------------- 1 G/C =0.219 I G/C =0.137 I G/C =0.373 1 I G= 15.3" 1 G= 9.6" 1 G= 26.1" 1 1 Y +R= 5.0" 1 Y +R= 7.0" Y +R= 7.0" 1 1 OFF= 0.0 1 OFF =29.1% 1 OFF =52.7$ 1 C= 70 sec G= 51.0 sec = 72.9% Y=19.0 sec 27.1% Red= 0.0 sec = 0.0% ------------------------------------------------------------------------------- 1 Lane ]Width /I g/C I Service Ratel Adj I I HCM 1 L 190% Max1 I Group I Lanesl Reqd Used I @C (vph) @E IVolumel v/c I Delay I S 1 Queue I SB Approach 10.5 B 1 RT 1 12/1 10.048 10.456 1 672 1 722 1 37 10.051 1 6.9 1 B +1 25 ft1 ILT +TH 1 12/1 10.043 10.219 1 315 1 389 1 37 10.095 1 14.1 1 B 1 28 ftl NB Approach 25.6 D+ ----------------------------------------------------------- I RT 1 12/1 10.175 10.456 1 672 1 722 1 207 10.287 1 7.8 1 B +1 111 ft1 ILT +TH 1 12/1 10.243 10.219 1 315 1 389 1 357 10.918 1 36.0 1 *D 1 274 ft1 WB Approach 34.7 D __----------------------------------------------------------------------------- 1 TH +RTI 12/1 10.422 10.401 1 686 1 744 1 728 10.978 1 34.1 I *D 1 429 ftl I LT 1 12/1 10.168 10.165 1 221 1 293 1 259 10.884 1 36.3 I *D 1 213 ft1 ® EB Approach 13.6 B I TH 1 12/1 10.315 10.401 1 669 1 747 1 517 10.692 1 13.1 1 B 1 305 ft1 1 LT 1 12/1 ----------------------------------------------------- 10.073 10.165 1 221 1 293 1 75 10.256 ------- 1 16.6 -- ----- 1 C +I ------ 62 -- ft1 - - -- Append Nostop Cycle Length Analysis — 40 mph 3reencastle walmart Preliminary Analysis for System Operation 0 °1/18/99 tasume 45% Through Greens 10:24;23 t0 mph sOSTOP /TEAPAC - Optimum Progression Data Cycle Length = 45.0 sec Speed Factor = 1.000 = 1000 / 1000 Band Left -Right = 19.8 aec = 43.9 i of cycle Band Right -Left = 19.8 see = 43.9 4 of cycle Band Ratio = 1.00 LR /RL (1,00 desired) Efficiency = 97.6 % of smallest split s iOSTOP /TEAPAC - Graph of Efficiency versus Cycle Speed Opt Bandwidth (sec and %) and Hand Efficiency (%) 7ycle Factr E£fic 0 10 20 30 40 50 60 70 80 90 100 cycle (sec) (-) (b) +--_-+_-_-+----+-_-- +__-- +__-- +_- _- +---- +_--- +____+ (sec) 40 1.000 83.3 + * 40 45 1.000 97.6 + * 45 50 1.000 88.9 + * 50 55 1.000 79.6 + * 55 60 1.000 70.4 + * 60 65 1.000 64.4 + * 65 70 1.000 60.3 + * 10 75 1.000 55.2 + * 75 80 1.000 50.0 + * 80 B5 1,000 46.8 + * 85 90 1.000 44.4 ,+ * 90 95 1.000 46.5 + * 95 100 1.000 48.9 + * 100 105 1.000 52.1 + x 105 110 1.000 54.5 + ■ 110 115 1.000 55.8 +, * 115 120 1.000 57.4 + x 120 125 1.000 59.8 + * 125 130 1.000 61.5 + * 130 135 1.000 62.3 + x 135 140 1.000 63.5 + * 140 ----- ___== ===== +----+---+----+---- +-- --- --- - +---- +- --- +---- +----+ = ==== 45 1.000 97.6 0 10 20 30 40 50 60 70 80 90 100 45 Key: Bandwidth (sec) ". Bandwidth (%) " +" Band Efficiency (4) " *" sOSTOP /TEAPAC - Optimum Progression Data Cycle Length = 45.0 sec Speed Factor = 1.000 = 1000 / 1000 Band Left -Right = 19.8 aec = 43.9 i of cycle Band Right -Left = 19.8 see = 43.9 4 of cycle Band Ratio = 1.00 LR /RL (1,00 desired) Efficiency = 97.6 % of smallest split s 0 0 0 COUNTY 67 YEAR 1995 TR VEH TR VEH TR VEH LOC OF NUM 01ST REEL FRAME REP ROAD REFER CITY HO NO NO SURF LIGHT COLL COL DR ACT 0R ACT DR ACT 1ST R OF FROM DATE NUM RUH RUM RUN ROAD CODE TWP V 1 0 W COND CORD DIAG TIRE INV 1 1 2 2 3 DAM 'C ACC FEE RD Dip 0413 045 1316 001 240001 059700 4!68 3 4 1 1 1 C6 1543 D7 E O1 N 01 W 01 1 1 1 0000.^, 0421 049 0907 004 240001 032200 08 2 1 1 1 04 1400 01 W 01 E 07 7 1 1 01056. E 0511 058 1073 004 240001 059700 4168 2 `. 2 1 1 06 1600 01 S 17 W 01 1 1 i 00000. 0612 073 1053 001 240001 032100 08 2 1 1 1 05 1010 12 W 09 E 20 4 2 l 00600 E 1108 145 0766 001 240001 032200 i3 2 1 1 1 06 1535 01 W 04 E 01 7 1 l U 1124 154 0034 003 24000I 059760 4168 2 2 1 7 3 06 2039 01 SE 01 W 01 1 1 1 00000 YR TOTAL 13 7 6 COUNTY 67 YEAR 1996 TR VEN FR VEH TR VEH LOC OF NUN DIST REEL FRAME REP ROAD REFER C1 T NO v NO SURF LIGHT COLL COL DR ACT OR ACT DR ACT 1ST. R OF FROM DATE NUM NUM NUM NUM ROAD CODE TWP V I D W COWD CORD DIAG TIME INV 1 1 2 2 3 3 DAM C ACC REF RD DIR 0108 005 0537 002 240001 059700 4168 2 2 1 2 2 06 1730 C1 N 07 W 07 1 7 7 00000 0116 009 1252 004 240001 032200 Ofl 1 2 2 1 05 0850 19 NW 01 4 1 1 1 10500 E 0515 063 0333 003 240001 059700 4168 2 1 3 2 3 06 2145 01 S 01 O1 1 1 l 00000 1019 137 0966 001 240001 032200 08 1 1 5 C2 U 71 E 0 1 7 5 1 00300 W YR TOTAL 6 3 4 COUNTY 6? YEAR 1997 TR VEH TR VEH TR VEH LOC OF NUM DISC REEL FRAME REP ROAD REFER CITY NO HO NO SURF LIGHT COLL COL 0R AC1 OR ACT OR ACT 1ST R OF FROM DATE NUM NUN NUM HUH ROAD CODE TWP v [ 0 W COND COND CIAO TIME INV 1 1 2 2 3 3 DAM C ACC REF RD DIR 0123 014 1061 003 240001 032100 13 2 1 2 1 2 05 1749 PW 17 W Cl 4 1 1 U 0425 055 0694 003 240031 032200 OS i 1 1 5 06 22010 U E O7 7 2 1 02500 E 1230 000 0000 002 240001 059700 4168 2 2 1 1 18 1549 O1 W 03 U 01 1 l 1 00000 YR TOTAL 5 7 3 �pl M INDIANA DEPARTMENT OF TRANSPORTATION CRASH LOCATION REPORT PAGE ` COUNTY 67 YEAR 1994 COMPUTERIZED CRASH DATA -NOT VERIFIED FOR ACCURACY OR COMPLETENESS-FOR REVIEW AND INFORMATION ONLY INVESTIGATED CRASHES ONLY • SR 240 FROM 10TH ST TO CR 275E - PUTNAM CO TR VEH TR VEM TR VEH LOC OF NUM DIST REEL FRAME REP ROAD REFER CITY NO NO NO SURF LIGHT COLL COL DR ACT DR ACT OR ACT 1ST R OF FROM DATE HUM NUM NUM NUN ROAD CODE TWP V 1 0 W CORD CORD DIAG TIME INV 1 1 2 2 3 3 DAM C ACC REF RD 01R 0103 001 1195 002 240001 032200 13 1 2 1 5 02 0625 71 E 01 7 1 1 02000 E- 0130 Oi7 0509 002 240001 032200 13 1 2 1 5 02 0720 06 E 01 7 5 1 02760 0- 0508 061 1006 001 240001 059700 4168 l 1 1 5 02 2138 06 E 01 7 1 1 00550 4 0610 076 0555 003 240001 032200 08 1 1 1 1 2 05 0425 22 W 20 4 5 1 05000 'E 0703 087 0104 001 240001 032100 13 2 1 1 5 01 2315 01 E 01 E 01 7 1 1 01000 E 0715 092 0547 004 240001 032100 13 2 1 1 1 C1 1455 01 F 04 E 01 7 1 1 02560 E 1013 132 1002 003 240001 032200 08 1 2 1 1 05 1555 17 W 01 4 5 1 03000 E 1203 159 1464 004 2400GI 032200 13 1 1 2 5 02 1850 71 E .01 '/ 2 1 067GO W 1221 168 1533 001 240001 059700 4168 1 1 1 1 3 06 2029 01 S 16 W O1 1 1 1 00000 YR TOTAL 12 1 9 COUNTY 67 YEAR 1995 TR VEH TR VEH TR VEH LOC OF NUM 01ST REEL FRAME REP ROAD REFER CITY HO NO NO SURF LIGHT COLL COL DR ACT 0R ACT DR ACT 1ST R OF FROM DATE NUM RUH RUM RUN ROAD CODE TWP V 1 0 W COND CORD DIAG TIRE INV 1 1 2 2 3 DAM 'C ACC FEE RD Dip 0413 045 1316 001 240001 059700 4!68 3 4 1 1 1 C6 1543 D7 E O1 N 01 W 01 1 1 1 0000.^, 0421 049 0907 004 240001 032200 08 2 1 1 1 04 1400 01 W 01 E 07 7 1 1 01056. E 0511 058 1073 004 240001 059700 4168 2 `. 2 1 1 06 1600 01 S 17 W 01 1 1 i 00000. 0612 073 1053 001 240001 032100 08 2 1 1 1 05 1010 12 W 09 E 20 4 2 l 00600 E 1108 145 0766 001 240001 032200 i3 2 1 1 1 06 1535 01 W 04 E 01 7 1 l U 1124 154 0034 003 24000I 059760 4168 2 2 1 7 3 06 2039 01 SE 01 W 01 1 1 1 00000 YR TOTAL 13 7 6 COUNTY 67 YEAR 1996 TR VEN FR VEH TR VEH LOC OF NUN DIST REEL FRAME REP ROAD REFER C1 T NO v NO SURF LIGHT COLL COL DR ACT OR ACT DR ACT 1ST. R OF FROM DATE NUM NUM NUM NUM ROAD CODE TWP V I D W COWD CORD DIAG TIME INV 1 1 2 2 3 3 DAM C ACC REF RD DIR 0108 005 0537 002 240001 059700 4168 2 2 1 2 2 06 1730 C1 N 07 W 07 1 7 7 00000 0116 009 1252 004 240001 032200 Ofl 1 2 2 1 05 0850 19 NW 01 4 1 1 1 10500 E 0515 063 0333 003 240001 059700 4168 2 1 3 2 3 06 2145 01 S 01 O1 1 1 l 00000 1019 137 0966 001 240001 032200 08 1 1 5 C2 U 71 E 0 1 7 5 1 00300 W YR TOTAL 6 3 4 COUNTY 6? YEAR 1997 TR VEH TR VEH TR VEH LOC OF NUM DISC REEL FRAME REP ROAD REFER CITY NO HO NO SURF LIGHT COLL COL 0R AC1 OR ACT OR ACT 1ST R OF FROM DATE NUM NUN NUM HUH ROAD CODE TWP v [ 0 W COND COND CIAO TIME INV 1 1 2 2 3 3 DAM C ACC REF RD DIR 0123 014 1061 003 240001 032100 13 2 1 2 1 2 05 1749 PW 17 W Cl 4 1 1 U 0425 055 0694 003 240031 032200 OS i 1 1 5 06 22010 U E O7 7 2 1 02500 E 1230 000 0000 002 240001 059700 4168 2 2 1 1 18 1549 O1 W 03 U 01 1 l 1 00000 YR TOTAL 5 7 3 �pl M 0 Appendi WATERWAYS SMALL TRACTS =,, S'Umm[of;S - 9 D WELLING or FARM UIlJf 'A( PAGE 'I T ECfWAPD MAPY . z.: O kENN NIXtj�j , �rNt, i� 4 � .us: a t`Er_c; 1 a r t1 AR TO IA IY4 ArimE- JVRIL " T" �N.cr AtA Ez, - T, Z 75.4 77. • • ;5 211n ma 4Q I Al. � "iq.4 17-1 Av.�l gLo A `i� Wa4w OKal )gmc> EASE -,p PF.,C.� 000 40 sl IT . ......... Ill . . . . . . . . . . . . . . . . . . . I]