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HomeMy WebLinkAbout2003 Stormwater Mgmt System for Ashbury SubdivisionSTORMWATER MANAGEMENT SYSTEM FOR ASHBURY SUBDIVISION City of Sebastian, FL August 2003 Prepared By: Schulke, Bittle & Stoddard, L.L.C. 1140 7th Court, Suite 'F' Vero Beach, Florida 32960 (772) 770-9622 Received rl Jodah S. 3ittle, P,E. EI. i4y. No. 57396 P&Z GroWh Mg. r TABLE OF CONTENTS Section Page I PROJECT DESCRIPTION 1 - Summary of Project Areas II EXISTING CONDITIONS 2 - Area / Existing Use - Existing Vegetation - Topography - Existing Drainage System - Soil Types - Drainage Basin / Flood Elevations - Water Table III DRAINAGE PLAN 3 - 11 - Water Quality Criteria - Water Quantity Criteria - Pre Development Calculations - Post Development Calculations - Pond Sizing Calculations IV SUMMARY 92 APPENDICES Appendix A Location Sketch U.S.G.S. Quad Map Flood Zone Map Aerial Map Appendix B SCS Soil Data Soil Borings Appendix C Flood Routing: Mean Annual, 10, 25 and 100 year - 24 hour Rainfall Events Appendix D Drawdown Analysis for Wet Pond Appendix E Run-off Data Appendix F Fiduciary Letter Deed I. PROJECT DESCRIPTION Ashbury Subdivision is a proposed 56.92 acre site consisting of 195 residential lots. The project lies in Section 6 and 7, Township 31 S, Range 39E. The site is located on the north side of Sebastian Elementary School, north of 512 in the City of Sebastian, Florida. The subject site consists of a existing woods. The proposed stormwater treatment system consists of a wet detention system providing treatment and attenuation for the subject site. The subject site's modified stormwater system has been designed to attenuate stormwater runoff based on post developed conditions consisting of proposed roadways, houses and driveways with pre -developed conditions consisting of dense wooded pine trees and palmetto bushes. The drainage plan will be designed and constructed in accordance with the design and performance criteria of 40C-42, F.A.C., "Regulation of Stormwater Management System." The reviewing agency for permitting is the St. Johns River Water Management District, Melbourne Field Office and the City of Sebastian. SUMMARY OF PROJECT AREAS: Site Area 1 2,514,796 s.f. 57.73 acres Basin Area (Less commercial area) 1 2,479,634 s.f. 56.92 acres - POST -DEVELOPMENT AREAS On -Site Areas Drainage Area 2,479,634 s.f. 56.92 acres 100.0% Building j 773,364 s.f. 17.75 acres 31.2% Conc. Drives/ Pads 210,918 s.f. 4.84 acres 8.5% Roadways 180,077 s.f. 4.13 acres 7.3% Stabilized Areas s.f. .00 acres 0.0% Total Impervious 1,164,359 s.f. 26.73 acres 47.0% Wet Storm Detention Area 244,423 s.f. 5.61 acres 9.9% @ control elevation Total Pervious for Basin Area 1,070,852 s.f. 24.58 acres 43.2% II. EXISTING CONDITIONS AREA / EXISTING USE: The existing site consists of woods. EXISTING VEGETATION: The existing vegetation consists of pine trees, palmetto bushes and scattered wetlands. TOPOGRAPHY: The pre -developed topography varies from 21' to 25'. The property's contours generally slope from the center of the property out to the adjacent properties. It appears that the site ultimatly discharges to the ditch to the west of the property which discharges south to the CR 512 right-of-way's drainage system. SOIL TYPES: The site lies within S.C.S. soil types Immokalee, Myakka, Archbold, Pomello, and Satellite. The H.S.G. value varies from 'A' to 'B/D' to 'C' from the S.C:S. soil data with a majority of the site equalling type'B/D'. Appendix B contains pertinent S.C.S. soil data on this series of soil, copied from "Soil Survey of Indian River County, Florida". DRAINAGE BASIN FLOOD ELEVATIONS: The parcel lies within flood zone "X" as determined by FEMA flood zone map no. 12061 C0076 E (5/04/89). WATER TABLE: The existing water table elevation is estimated based on existing topography and existing adjacent ditches. The elevation of the water table set for the subject site is 20.5 NGVD. 'ME CoN-near- Core At7J4CCA-T '6E15a"141-2 ELLrAJE4-14Ztj 56000tG (FVMmrt No. 4-661- &52g1_ ') I s A-r M-1.. 19.75 F7, A e,ke tN5yE6-fto" va,N -1-W ewto/et-r- RNA-1 -rNr6 �-�� vq-rio►� Arplewra5 Go P>f Lmolle te+.►ir AS- . ffb_fs a-i-te AAV r 2W5IbPCV q? 1kth ei,6VA-[rot.7. -Mc pl2oro5or Sr-E V MA %4 15C anNS t7EtrC�7 St14► t y &P F - h 1574 D ! ktv-f Priam -114v �x�lopL y O'kip A-eaa►-tI?. L-CLV-VA_[t.0,J 0,50 F-r zo 0,715 Ir-r PlAlget WA 2 e_W1Ve L 9tVXV AP "W'14'!ry E5-rlm4le- EvIZ ?cll7 S1'Cb . ?'11E1215Fb � III. DRAINAGE PLAN The proposed Stormwater Management System consists of a wet detention system. The detention areas are located in the center and the perimeter of the property. The system conveys the stormwater run-off through the folfowing facilities. 1. The pavement is sloped to drain into drainage inlets and into the lake through a piping system. 2. The runoff is detained in the lakes. 3. During storm events, run-off will flow through the control structures and into the existing right-of-way's drainage system WATER QUALITY CRITERIA: The Drainage Plan implements a wet detention system in accordance with 40C-42.026(4) and meets design requirements for the following: 1. [40C-42.026(4)(a)] The system treatment is provided by retention of greater value of the following. a. 1.0 in of run-off from the total drainage area b. 2.5 in of run-off from all impervious areas This treatment requirement is satisfied with the proposed wet detention system which retains the required treatment volume. 2. [40C-42.026(4)(b)] The drainage system provides the capacity for half of the appropriate treatment volume of stormwater between 24 to 30 hours following a storm event. (Appendix E) WATER QUANTITY CRITERIA: The applicant must demonstrate that the stormwater management system's discharge criteria is designed to satisfy the Mean Annual and 25 year - 24 hour storm event (SJRWMD) and the 10 year - 24 hour storm event (Ciyt of Sebastian. The 100 year - 24 hour storm event has also been provided for determination finished floor elevations. Flood Routings (Appendix C) have been generated by the SJRWMD approved software (ADICPR) for the pre and post development conditions for the subject storm events Input data includes: a. basin size b. time of concentration c. soil storage values d. precipitation e. rainfall distribution f. stage/storage/discharge data The computer program used is the "InterConnected Pond Routing" (ADICPR developed by Streamline Technologies. This program generates on -site run-off hydrographs by using a modification of the soil conservation service "CN" method or a "lagged" hydrograph using the Santa Barbara Urban Hydrograph method in conjunction with the S.C.S. method. The S.C.S. method was used for this project. The computed discharge rates are located in Section IV - Summary. PRE -DEVELOPMENT CALCULATIONS: On -Site Areas Drainage Area 2,479,634 s.f. 56.92 acres 100.0% Building .00 acres 0.0% Driveways/ Walk/ Pads 00 acres 0.0% Roadways .00 acres 0.0% Total Semi. -Impervious .00 acres 0.0% Total Impervious s.f. .00 acres 0.0% Total Pervious 2,479,634 s.f. 56.92 acres 100.0% Weighted Curve Number • Impervious 0.0% ICN1 = 98 • Semi -Impervious 0.0% Soil Group B/D ICN2 = 98 • Pervious 100.0% Soil Group BID ICN3 = 70 CN = [(% Impervious)(CN1) + (% Semi-Impervious)(CN2) + (% Pervious)(CN3) ] CN = 70.0 Time of Concentration t1 = Overland Flow = [ 0.007 (N x L)^0.8 ] / [ P10.5 x S^0.4 ] = Kinematic Wave Eq. Where N = Mannings Roughness Coeff. _ 0.8 L = Length of Flow (ft) _ 300 Change in elevation = 0.36 P = Rainfall Intensity = 5.5 j S = slope (ft/ft) = 0.0012 t1 = 211.6 min. = 3.5 hours t2 = Shallow Concentrated Flow = L 160V (where overland flow lengths exceed 300 feet) Where: L = Length of Flow (ft) _ 400 V = Velocity (fps) _ 0.2 t2 = 33.3 min. _ .6 hours Total Time of Concentration (Tc) 245.0 min. = 4.1 hours i L'olumhus Street a° n, --- ---- —--�`ra---------- -------------------------------------------------�..----------- I i I t " I I I i I I I 11 I I � # ' I I i °. i II ------------ I I I I I I i • e laovm'iaE iwom' ! 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I 1 i i i 1 1 I I , 1 , 1 - ---------------- POST -DEVELOPMENT CALCULATIONS: On -Site Areas Drainage Area 2,479,634 s.f. 56.92 acres 100.0% Building 773,364 s.f. 17.75 acres 31.2% Driveways/ Walk/ Pads 210,918 s.f. 4.84 acres 8.5% Roadways 180,077 s.f. 4.13 acres 7.3% Stabilized Areas s.f. .00 acres 0.0% Total Impervious 1,164,359 s.f. 26.73 acres 47.0% Wet Storm Detention Area 244,423 s.f. 5.61 acres 9.9% Total Pervious 1,070,852 s.f. 24.58 acres 43.2% Weighted Curve Number % Impervious 47.0% ICN1A = 98 % Wet Pond Area 9.9% CN1 B = 100 % Semi -Impervious 0.0% ICN2 = 98 % Pervious 43.2% Soil Group B/D ICN3 = 74.0 CN = [(% Impervious)(CN1) + (% Semi-Impervious)(CN2) + (% Pervious)(CN3) ] CN = 87.8 Time of Concentration t1 = Roof to Ground = t2 = Overland Flow = [ 0.007 (N x L)^0.8 Where N = Mannings Roughness Coeff. _ L = Length of Flow (ft) _ Change in elevation = P = Rainfall Intensity = S = slope (ft/ft) _ t2 = t3 = Overland Flow = [ 0.007 (N x L)^0.8 Where N = Mannings Roughness Coeff. _ L = Length of Flow (ft) _ Change in elevation = P = Rainfall Intensity = S = slope (ft/ft) _ t2 = Pipe Flow = Length / velocity 1 2 min. 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' • ' .: J i4 --=�1 � ' v�w1 r-�- - ff g >< y �_______i__�_ �_—_ £1 £L £1 £L 04L L4L Il ,f►t 1 7—_—_ —]' / I i I 17 ,-tr -- _� r_rt - fi�Ir�� .. 9£8Zj1 �LZ 9Z __� BL.,,I` "tl r. —.._........ ...... _.._........ _.._.._.. _.._.._.. _.._.._.._.._..—. aa�I._ .._.. _.._.._.._..—.. _..—.._.. _ _ _ _ FkZlsl_3F0.UDOON._.._.._..—.._-._.. _.._.._.._.._.._..—.._.._ .. c.. io jea4S sngwnloo PONDS 1-5 AND ROADWAY VOLUMES PONDA Incremental Incremental Cumulative Cumulative Stage Area volume volume volume volume ft, fac) (ac-ft c.f.) iac-ft) (c.f. bot. of ;)ond = 10.50 I 1.074 0.00 0 46,787.s_f. 10.626 462.880 18.50 I 1.583 10.63 462,880 68, 953. s_f. 3.44 149.671 Control = 20.50 I 1.853 0.00 0 80,718.s.f. 6.19 269,757 23.50 I 2.275 6.19 269,757 99,12O.s.f. 1.28 55,621 top of bank = 24.0 I 2.832 7.47 325,378 123,364.s.f. POND-2 Incremental Incremental Cumulative Cumulative Stage Area volume volume volume volume (ft (ac) ac-ft. (c.f. ac-ft) (c.f.) bot. of po5 = 10.50 I 0.038 0.00 0 1,665..0. 0.728 31,692 18.50 I 0.144 0.73 31,692 6,258. s.f. 0.36 15,531 Control = 20.50 I 0,213 0.00 0 9,273.s.f. 0.82 35,735 23.50 0.334 0.82 35,735 14, 5 50. s.f. 0.21 9.242 top of bank = 24.0 I 0.515 1.03 44,977 22,419.s.f. POND-3 Incremental Incremental Cumulative Cumulative Stage Area volume volume volume volume (ft (ac) (ac-ft c.f.) (ac-ft) c.f. bot. of pon = 10.50 ) 1.349 0.00 0 58, 760. s.f. 13.721 597,688 18.50 2.081 13.72 597,688 90,662.s.f, 4.72 205,446 Control = 20.50 I 2.635 0.00 0 114,784.s.f. 8.82 384,183 - 23.50 I 3245 8.82 384,183 I 141,338.s.f. 1.82 79,285 top of bank = 24.0 I 4.036 10.64 463,468 I 175,801.s.f. POND-4 Incremental Incremental Cumulative Cumulative Stage Area volume volume volume volume ft (ac) (ac-ft) c.f. (ac-ft) (c.f_) bot. of pond = 10.50 I 0.346 I 0.00 0 15, 062.s.f. 3.620 157,692 18.50 I 0.559 I 3.62 157,692 24,361.s.f. 1.28 55.735 Control = 20.50 I 0.720 I 0.00 0 31,374.s.f. 2.47 107,538 23.50 0.926 2,47 107,538 40,318.s.f. 0.53 23,272 to. of bank = 24.0 I 1.211 3.00 130,810 52,770.s.f. POND-5 Incremental Incremental Cumulative Cumulative Stage Area volume volume volume volume ft ac) (ac-ft) (c.f.. (ac-ft) (c.f.) bat. of ::ond = 10.50 I 0.021 I 0.00 0 898.s.f. 0.540 23,504 18.50 I 0.114 I 0.54 23,504 4, 980. s.f. 0.30 13,254 Control = 20.50 0.190 0.00 0 8,274.s.f. 0.80 34.868 23.50 I 0.344 0.80 34,868 14,971.s:f. 0.24 10,259 top of bank = 24.0 0.598 1.04 45,126 26,063,s.f. ;ROADWAY STORAGE Incremental Incremental Cumulative Cumulative Stage Area volume volume volume volume ft ac, (ac-ft, c.f.: (ac-ft (c.f. 23.50 0.000 I 0.00 0 . s.f. 0.233 10,150 24.00 0.932 I 0.23 10,150 40,600.0. POND SIZING CALCULATIONS REQUIRED TREATMENT VOLUME Total Contributing Area (ac) = 56.92 Total Impervious Area (ac) = 26.73 Required Treatment over site (in) = I 1.0 4.74 ac-ft Required Treatment over impervious area (in) = I 2.50 5.57 ac-ft Required Treatment Volume (ac-ft) = 5.57 (112 Treatment Volume ) 2.78 PROPOSED TREATMENT VOLUME Incremental Incremental Cumulative Cumulative Stage Area volume volume volume volume ft i8c) (ac-ft) (c.f.) (ac-ft) (c.f.) I bot. of pond = 10.50 I 2.827 0.00 0 123,150. s.f. 29.235 1,273,456 I 18.50 I 4.481 I 29.23 1,273,456 195,214.s.f. 10.09 439,637 Control = 20.50 I 5.611 J 0.00 0 244,423.s.f. 1.419 61,792 20.75 ) 5.737 I 1.42 61,792 249,913.s.f. 1.36 59,336 I 1/2 treat. vol. el. = 20.985 5.856 I 2.78* 121,128 should =2.78 ac-ft 255,073.s.f. 2.79 121,513 I rqd. treat. vol. = 21.452 6.091 I 5.57 242,641 265, 327. s.f. 0.29 12,761 I weir = 21.50 I 6.115 I 5.86 255,402 266,381.s.f. 11.47 499,790 23.25 6.997 17.34 755,192 304,808.s.f. 1.77 76,888 I 23.50 I 7.123 19.10 832,080 310,297.s.f. 4.31 187,829 top of bank = 24.0 I 10.124 23.41 1,019,909 441,017.s.f. Orifice Sizinq Drawdown Calculations Rqd. Treatment Vol. to Draw Down : 2.784 ac-ft (Provided in Pond) Rqd. Min. Time to Drawdown 1/2 T.V. 241hours Rqd. Max. Time to Drawdown 1/2 T.V. I 30 hours Elevation of Orifice : 20.50 N.G.V.D. Assumed Orifice Diameter: I 8.001 inches Centroid of Orifice: 20.83 N.G.V.D. Elevation of Control Elevation 20.50 N.G.V.D. Elevation of treatment volume : 21.45 N.G.V.D. Max. Orifice Diameter*: 8.41 inches 'Orifice Equation: Q=C*A*(2*g*H)^.5 Orifice Diameter Utilized : I 9"xY Permanent Pool Volume Calculations Contributing Area (CA) 56.925 acres length of wet season (WS) 153 days wet season rainfall depth (R) 31 inches minimum residence time (RT) 21 days* runoff coefficient (C) 0.58 impervious 56.8% 0.95 pervious 43.2% 0.1 Required PPV** 11.77 ac-ft ** PPV = (CA*C*R*RT/(WS*12)) PPV Provided : I 39.331ac-ft *Note : 14* 1.5 = 21 days utilized to eliminate need of littoral zone. Mean Depth Calculations Mean Depth = PPV / Area at Control El.= 39.33.ac-ft 15.611 acres = 7.0.ft <= 8 ft. O.K. WETLANDS 1-2 VOLUMES WETLAND - 1 Incremental Incremental Cumulative Cumulative Stage Area volume volume volume volume (ft) (ac) (ac-ft) (c.f.) (ac-ft) (c.f.) bot. of wetland = 24.20 I 0.285 1 0.00 0 12,400.s.f. 0.257 11,175 top of bank = 24.5 1.426 0.26 11,175 62,100.s.f. WETLAND - 2 Incremental Incremental Cumulative Cumulative Stage Area volume volume volume volume (ft) (ac) (ac-ft) (c.f.) (ac-ft) (c.f.) bot. of wetland = 21.00 1 1.104 1 0.00 0 48,100.s.f. 1.051 45,780 top of bank = 21.7 1 1.899 1 1.05 45,780 82,700.s.f. IV SUMMARY Following are summaries of pre -developed and post -developed discharges for the storms that have been analyzed. ROUTING SUMMARY City of Sebastian and Saint John's River Water Management District (SJRWMD) PRE -DEVELOPED CONDITIONS Mean Annual- 24 hourCS Type II, Ff. Modified Storm Event) (SJRWMD) Teak Discharge (CFSi Pre 9.71 25 year- 24 hour (SCS Type Il, Ff. Modified Storm Event) (SJRWMD) Peak Discharge (CFS) Pre 30.51 I 10 year- 24 hour (SCS Type Il, Ff. Modified Storm Event) (City of Sebastian) Peak Discharge (CFS Pre I 21.43 25 year- 24 hour (SCS Type II, Ff. Modified Storm Event) (City of Sebastian) Peak Discharge (CFS) Pre 27.24 I POST -DEVELOPED CONDITIONS Mean Annual- 24 hour (,SCS Type II, Ff. Modified Storm Event) (SJRWMD) Peak Discharge Peak Stage CFS (NGVD Pond To Offsite 8.21 I 22.33 pre/post dill. 1.5 25 year- 24 hour (SCS Type II, Ft. Modified Storm Event) (SJRWMD) Peak Discharge Peak Stage (CFS, (NGVD) Pond To Offsite 29.85 24.04 pre/post diff. 0.66 10 year- 24 hour (SCS Type II, Ff. Modified Storm Event) (City of Sebastian) Peak Discharge Peak Stage CFSi NGVD, Pond To Offsite 21.12 23.37 pre/post diff. 0.31 25 year- 24 hour (SCS Type II, Ff. Modified Storm Event) (City of Sebastian) Peak Discharge Peak Stage CFS �NGVD- Pond To Offsite I 26.10 23.83 pre/post dill. 1.14 100 year- 24 hour Peak Stages 100 year +NGVD) Ponds 1-5 24.43 As demonstrated by the above calculations and the Flood routing computations and mounding analysis contained in the appendices of this report, the proposed stormwater management system meets the requirements of the City of Sebastian and SJRWMD. The system provides adequate treatment volume, recovery of the treatment volume and attenuation for the mean annual, 10 year and 25 year - 24 hour storm events. Existing Wetland Summary: As can be seen in the Flood Routing Calcs, the existing wetland 91 is estimated to receive 3.3 acres, or 5.8 percent of the site's existing run-off. Based on this estimate wetland #1 receives (1,156,573 of/ 43560 sf/ac) x 0 058 = 1-54 ac-ft of runoff. Due to the surrounding elevations being at or lower than wetland #1's elevations, the post developed discharge to wetland #1 has been set to whatever rainfall enters the wetland and the surrounding buffer. The control structure from wetland #1 to Pond-1 has been set such that the wetland reaches its maximum capacity prior to discharging, elev. 24.40. As can be seen in the Flood Routing Calcs, the existing wetland #2 is estimated to receive 14.5 acres, or 25.5 percent of the site's runoff. Based on this estimate wetland #2 receives (1,156,573 of/ 43560 sf/ac) x 0.255 = 6.77 ac-ft of runoff for the 25 year-24 hour storm event. To best simulate the pre -developed runoff characteristics for the existing wetland, the ouffall structure should be sized to discharge approximately the same volume of runoff for the post developed storms. Due to the approximate pre -developed discharge volume to wetland #2 exceeding the available volume within the wetland, the drop structure to wetland #2 has been sized to discharge a volume equal to the wetland volume, or 1.05 ac-ft, within a 24 hour period. Appendix A Location Sketch U.S.G.S. Quad Map Flood Zone Map Aerial Map VICINITY MAP lei I \or I�t RIVER `\ < El HAV .-,. ' •FI ELCU -. ��• �l \ O SKYANTIAA' L:GMML ' :. R O S E"N D ` �aERVF;ln OCE use\ BFE` t�Sch+.i1LUU YOIDMRr Ail ' I ACRES �/� ` H G� ,F�Ng." \ L -+-o Vie', e 2s s DER S'�:.�' H LS `` ROSELAND SEBASTIANr oz •� ,aa.' IP xU �V f EpSD6 T, �J MUNICIPAL ,,1:ya.,TI,L.Y fj�� ,,� '` iT rYCJL/CES • tih:l'..9 S7'fA:,'Nl W..Iy EI.CHAM Y{ SLBA STIR A' STA _ CITY MIAT HAAI)' \' iv,pilr.A•r,.. r ,� AIRPORT >rJ .,�+ cLtr- ALLr rMAIN ST.< _ cq,r�.,,.,q �\ G AlUNICIrAL ~ J� „ I 1• V \ T`r VL Sr H'ASHf;'TII�'J�J..a ZA t E r I irosr1. /•' PuL T `lJ)L N•iry r�/L v 9 \ \ C 9'0\ �_ HEIGHTS a TAL\ . 011,1 LJx' 9 J - ^v w 'I 1 r I•.t li 1. J 1tssse T■■■ rxwl • VAIEH CIA sl ('l.1.li AT1J L ` I-, ■ Y CJ V r,P[ Do .v • `s EST / r i L !sl1.{T AEH!' L I P� 1,: r HJ.,r� 5t)5 1 f . Gt-•` ) AISMFF[ 6LYD ' p11 /Sl:yAS77AA• !r \\ xex�_'IfC�T �S AT s�- .\• r„•�� .;, . (•'r FINP�'r\` i \ a _`nfUS L 'L I`�t"Ly TANG r ri ' Nr UN-W^ASI/F•/Cl/',U_�Ci DNAHGL r—A C CAIAYD Y IN A 4 _ �L � ♦• \, rum •a Morfxa —� CGURS£i\QOLLIER �., y 4, 4x4'I ul AV a4Ux 1 of Srbaviax, I CLU9 �• � G i � i e i ,- � [xUlUx . npr PAi:x .r'c . � _6�•�'?1'," %'•• \\ �'l 1 � I I _ - _ � 2 N HIBI$C U5,4'_ �?�►y {{{jjj 'Cl S ��¢ �� s = x4 # m IIn_II I 1V0 UBfNxC.sl[Lsv[rsor_ _r�J�U I _ r /I m �I ✓P2 r �FI; Av[I o - �5 �o •G. 1> '�• , ,••l � O � S �lINGSCN �AI'F.i CRCIF A.Y' }`�-;r� ~ •' � 3a ' LAAE OR t' �•1Efi •¢¢ANDGEI AV JI; �If "I ",1L , l DfYDk1'G-'NUS C 7 -y ' i 1ss.tt Alp N ell e � I AL[M'ILv 3_ „ .0 Ir� +�T JO LsY DI[MLNs .+ wAvrJ #\ c .�%vfrF ;'� it �cr� D CU Ic VE II j I- L lyF 11 66 TI \ '.•.1 �40-�. LLix[I xvl 1-- '� �, 11, P 1 �4,ir - z sll D - i N o H -. f u I� a .\ c1 r �F •� LEAR � I , F r sus , SfII x +\ , �. r I',1. jI I� a H tAl rl •� i �.. x Lt �Ys�' `>_' ,, II.-E, ILr�x F_Jvv".k.\i�t .u..i..lI� l:_ �U�. ,III� �•4 \ ''�``�-\�_1Ir.y1 II !m_ IN i.iLI 42. O1p .II� Q I fiSULNR � C_I`FJ• ,555 Ir :_d ?µxWC12 BNDV1101 DMPLmw ' •} .ti'; !/I.U/ JDBDAF V 0 Lf116 lV ,-,.. •• I �.� � 1't)1ITlI , I ONLIIN 1 t)h'Ln `�/1;.f�Y.! UUyIDN>11m � ..•:_._ -I .� IVA JIn xi �I'�. FL1_ t / ( ivi.'l i•r I I \' I I .� ,. "1 . Itl FNf7 All II �I •. h j I.-. - -L t I •F il... I I [ r :'.:��� ,:" - 1 ail � :y ,.? �`,••� 4 .. ,,... ••,. \ It 1 x 18�� �w4 Piling _ 3080 CO y l,_ CO r� I` 3079 1 . � osela�d r1 •X . Invay Bea on1•_ 2 r n 5 \0i \�q 0 u A NAp �( \o Light A Lp `.\ 13 M— ,r —;,' // \\•. o' Fish tr hu GRANT T 30 S \\„ o�..�. 31 S 3077 22.1 eb stian LU w Mac , -hia:� L g S'� A TIAN MUNICIPAfc'`o AIRPORT j Ii......__.�� 'I i' —_ % BM 3076 9bPiling F. 23 O / \ ..•��� II ,i ii 'I it � � I! ! i I � � `�' p \ \ _ •• `� `\,� 25 \ ••.,, 75 .) i I - .. I :,I� 12., jl II h- ../ f ------•----• --Via•----•, 30 Zbr` j II I%,: ;, h� • i, .0of � j� p� Cu . /•, \ X i \ \\ I � 23 � ` . I KAJEAWAL FLOOD INSURANCE PROGRAM u u FIRM FLOOD INSURANCE RATE MAP ;j IN.U)IAN RWER COUNTY, fl.k.1fUDA AND !NCORPW-t-xrED AREAS PANEL 76 OF 169 CONTAIM: commuNITY NUMBER PANEL SUFFIX HHASTM, CITY Of 120123 0076 E UNINCORPORATED AREAS 120119 0076 E �� r PANEL [.0CATION I i �U��c c S c= y MAP NUMBER: 12061CO076 E EFFECTIVE DATE: L MAY 4, 1989 I 1"ederal E'inergency Manigement Agency W13 ZONE X City of Sebastian 120123 lar 7 a.w hh 44, uv— mko. R i. AlL Ail `�L 0:4, 4 tv IKE T7 nv 4 Wif M al I O-CITHIULKE9 imni,Lg (-& STO)IDDARID9 rinUPTIMM, Ulf,41 TPIKWITTIMA RTIq AMM Pro 'Afllac - (Z -1-�)TPT(nqpa7zrqlr, A, TP)TPT I Appendix B SCS Soil Data Soil Borings R. 38 E. I R. 39 E INDIAN RIVER COUNTY, FLORIDA 'fir 1f r 21 11 4 4 21 EBASTIAN IIEI 33 29 -37 512 T, 12' -4. 21 I I 12 7'- 2 rd� 45 .33 kl 12 'rMngi Cum,, 2 t �si- 4 196 Soil Survey. _ 'I TABLE 17.--WATER FEATURES I I 11 11 ("Flooding" and water table 11 and terms such as rare, brief, apparent, "rare," "brief," "apparent," "perched" and perched are explained in the text. The symbol { means less than; > means more than. Absence of an entry indicates that the feature is not a concern or that data were not estimated] Map IHydrologicl Floo�inq 1. I?ich water a e symbol and soil name I group I Frequency I Duration I Months I Depth I Kind I Months i ( Ft 1------------------ I C None------------ --- I I I 11.0-3.0 Apparent I Jun -Nov Canaveral I ! 2------------------------ I I B/D I I (None ------------ I --- 1 --- I 1 0-1.0 !Apparent I }� Jun -Feb.. Chobee 3----------------------- I B/D (None ------------ I --- 1--- 1 0-1.0 !Apparent I Jun-Oct- EauGallie I I I I I I I I '< I '4=------=--------------I B/D None ------------I --- I --- I 0-1.0 IApparent y Jun-NoV I ,. � Immokalee I I 5----------------------! I B/D +None ------------ ! ! 1 -- I -'- i 0-1.0.,1Apparent I r Jun E. Myakka ti 6----------------------- I B/D (None ------------ I --- I--- 1 0-1.0 lApparent I Jun -Feb Oldsmar ! 1 ! I I I I ` 7----------------------- I A iNone------------I --- ` --- i >6.0 Palm Beach I I 8----------------------- I ! A I ! (None ------------ I --- 1 --- I I I I I >6.0 I ! I I --- { I 3' y Paola ¢^ 9----------------------- I D INone------------ I --- i--- I 0-1.0 (Perched I Jun -Oct. Pepper r} 10--------------------- -I C/D 1 ---------I I --- I --- I I 0-1.0 ! I Apparent I Jun -Dec =' Riviera ! (None--- ! y i' 11---------------------- I A (None ------------ I --- I --- i >6.0 i --- St. Lucie 9 12----==--------------I A (None ------------ I --- I --r4 13.5-6.0 IApparent I Jun-NOvI, Archbold ( ( I 13---------------------- I B/D (None----------- 0-1.0 I � IApparent I Jun -Oct?' y Wabasso'� 14----------------------I B/D --- --- iNone------------I ! 1 0-1.0 I IApparent I I I Jun-` t , Winder 15---------------------- I B/D INone ------------ I --- I --- I 0-1.0 IApparent I Jun -Fe; Manatee ! I I I I ! ! �i 16-------------------- B/D !Rare ------------ 1 I --- I 0-1.0 IApparent I Jun -Not s Pineda--! I ! ! 17.* I I I I I I ! Quartzipsamments 18----------------------I I B/D ( I I --- !None ------------I I 0-0.5 ! IApparent I Jun! -4ct, Captiva See footnotes at end of table. n River County,, Florida Map symbol and soil name eaches "omello * 'rban land * .rents 'loridana ------------- ;t. Augustine it. Augustine i 3oca------------------- Irban land. + ;auGallie-------------- Jrban land. Immokalee-------------- Urban land. i ---------------------- Jupiter 2 2----------------------i Jonathan 3---------------------- Astatula -- - -----------i Satellite 5** -------------------- McKee ;------------------- Boca ;9----------------------� Malabar 10** -------------------- Gator See footnotes at end 197 TABLE 17.--WATER FEATURES --Continued Floo"2inr High water table IHydrologicl I group i Frequency i Duration i Months i Depth i Kind i Months f I I I •{ Ft I I C iNone------------1 --- i --- i 2.0-3.5 iApparent i Jul -Nov I I I I a B/D C B B/D B/D B/D B/D B A C D B/D B/D D of table. e------------1 None------------f None------------i None------------i None------------i f None------------i { Frequent--------i I None------------i None------------� None------------� --- ` + 0-1.0 iApparent i Jun -Feb --- --- i 1.5-3.0 Apparent Jul -Oct --- j 2.0-3.0 +Apparent i Jun -Oct --- --- 0-1.0 iApparent ; Jun -Feb Very long---- --- 0-1.0 ! Apparent 0-1.0 iApparent i 0-1.0 I I ±Apparent 3.0-5.0 iApparent >6.0 1.0-3.5 iApparent +2-0 I I `Apparent i 0-1.0 I f iApparent i 0-1.0 iApparent i +2-1.0 I f iApparent n-Oct Jun -Nov Jun -Nov Jun -Oct Jun -Nov Jan -Dec Jun -Feb Jun -Nov Jun -Dec 198 Map symbol and soil name TABLE 17.--WATER FEATURES --Continued kaoodin; Hydrologic, ' group Frequency Duration Months 41**-------------------- 1 B/D lNone ------------ Canova 1 1 42**--------------------I B/D None------------ Terra Ceia I I 44**-------------------- I D INone------------ Perrine Variant I I -4-------------------- i D iNone------------ Myakka I I 46----------------------I A INone ------------ Orsino I I 47------------- ---------I B/D (None------------ Holopaw I I 48---------------------- I C INone------------ Electra - I I' 49---------------------- I B/D (None------------ Pompano 50.* Pits I I 51**-------------------- I D INone------------ Riviera 1 52**-------------------- I D INone------------ Oldsmar I I 53**-------------------- I D INone------------ Manatee I I 54**-------------------- I D IFrequent-------- Riomar I I 55**-------------------- I D INone------------ Floridana I I 56**-------------------- I D INone ------------ Pineda I I 57**--------------------I D INone ------------ Holopaw I I 58**-------------------- I B/D (None------------ Samsula I I 59----------------------I B/D (None------------ Lokosee I 60**-------------------- I D INone------------ Pompano I 61**--------------------I D INone ------------ Delray I I i See footnotes at end of table. Soil Survey HiQt water table Depth + Kind I Months - +2.-0 `Apparent I Jan -Dec +1-1.0 IApparent I Jan -Dec +1-1.0 I (Apparent I ` Jun -Nov - I I +2-1.0 iApparent i Jun -Feb_ 3.5-5.0 I iApparent I I Jun -Dec , - 0-1.0 iApparent I Jun -Nov'; I I 2.0-3.5 iApparent I Jul -Oct 0-1.0 iApparent I Jun -Nov --- i --- I +2-1.0 (Apparent i Jun -Dec_ --- I --- I +2-1.0 iApparent I Jun -Feb --- i --- i +2.-1.0 IApparent I Jun -Feb I I I I e.�. Very long ----- I Jan -Dec I +2-0 IApparent I •: Jan -Dec ._ --- i --- i +2-1.0 iApparent i te' Jun -Feb.,,?.. --- I --- I +2-1.0 IApparent I Jun -Dec' o --- i --- I +2-1.0 IApparent I Jun -Apr _ 11 { 1 la' --- I --- ( +2-1 0 IApparent {Jan -De¢ --- i --- 1 0-1.0 i Apparent I Jul xo,r --- I --- I +2-1.0 IApparent I I I --- i --- i +2-1.0 IApparent I i I Jun-Q!C - w 4'�u.r<F4`t+i-NA�f'��d ,?4:PjJfrr'VM1'ii�mX�S{J' Soil name and I I IDepthl sample number I ! rn Archbold: I I 1 21 S82FL-061-006-1 0- 1 S82FL-061-006-2 2-181 118-381 S82FL-061-006-3 138-511 S82FL-061--006-4 S82FL-061-006-5 i51-80 Astatula: 1 41 S82FL-061-015-1 0- 1 4- 51 S82FL-061-015-2 1 S82FL-061-015-3 5-141 114-441 S82FL-061-015-4 144-711 S82FL-061-015-5 S82FL-061-015-6 171-801 Boca: S82FL-061-002-1 S82FL-061-002-2 S82FL-061-002-3 S82FL-061-002-4 Canaveral: S82FL-061-008-1 S82FL-061-008-2 S82FL-061-008-3 S82FL-061-008-4 S82FL-061-008-5 S82FL-061-008-6 S82FL-061--006-7 Canova: S82FL-061-011-1 S82FL-061-011-2 S82FL-061-011-3 S82FL-061-011-4 S82FL-061-011-5 S82FL-061-011-6 S82FL-061-011-7 S82FL-061-011-8 S82FL-061-011-9 S82FL-061-011-10, 0- 7' 7-141 14-201 20-2411 0- 5' 5- 91 9-171 17-341 34-491 49-611 61-8011 0- 6' 6-121 12-131 13-211 21-241 24-341 34-401 40-491 49-SE TABLE 19.--PHYSICAL ANALYSIS OF SELECTED SOILS Partic Sa I Horizoul Very (Coarse 1coarsel(1.0- IMedium 1 (0.5- 1 '(2.0- 1 0.5) 0.25) 10) I Mm I Mm ! Mm 1 A 1 0.0 i 4.6 i 65.5 I 1 Cl 1 0.0 1 5.3 1 61.9 Cl 1 0.0 ( 5.5 I 57.6 1 C2 1 0.0 1 4.5 i 53.4 C3 0.1 8.5 i 61.7 le -size distribution nd Fine Very I 1 Total (0.25-Ifine 1(0.1- 1 (2.0- 0.1) 0.05) 0.05)` Mm j Mm i Mm 28.2 I 1.0 1 99.3 31.3 1 1.0 1 99.5 35.0 1 1.2 I 99.3 40.2 1.3 ; 99.4 28.0 1 1.0 1 99.3 Silt ; Clay I(0.05-1(<0.002) `0.002) 1 1 MIl 0.3 ' 0.4 0.0 1 0.5 0.1 ( 0.6 0.0 1 0.6 0.0 0.7 A 0.0 7.3 70.2 21.1 0.8 99.4 ' i 0.0 ' 1 0.6 AIC I 0.0 1 5.4 1 68.4 i 24.1 1 0.9 ( 1 98.8 I 0.1 1 1.1 Cl 1 0.0 1 5.4 1 69.0 1 23,4 I 0.8 98.6 1 0.3 1 Z.1 C2 1 0.0 I 6.9 i 66 5 l 24.4 1 0.9 1 98.7 I 0.3 I 1.0 C2 1 0.1 I 8.7 1 64.0 1 25.1 i 0.6 i 98.5 0.2 1.3 C3 0.1 ' 7.6 59.9 28.5 0.9 97.0 1 2.2 1 0.8 Ap 1 0.2 11 I 1.6 E I 0.2 2.0 Bw 1 0.7 1 3.1 Bt i 2.8 i 3.4 A I I 1 0.0 I r• 0.4 Cl 1 0.0 I 0.5 C2 1 0.0 1 0.3 C3 1 0.0 1 0.7 C3 1 0.0 1 1.3 C4 1 0.0 1 0.8 C5 ! 0.2 4_1 Oap I --- Oa --- --- A I 0.2 113.8 E1 1 0.2 1 14.6 E2 1 0.2 1 13.1 Btg1 1 0.1 1 + 9.0 Btg2 0.2 10.1 Cgkl Cgk2'l 0_4 .0_9 1 10_5 74 Cq 1:.. 0.6. 1 9._3 5.8 11 70.4 1 14.7 ' 92.7 ' 3.8 ' 3.5 i 7.1 1 73.0 ( 13.1 I 95.4 ) 2.8 1.8 7.9 1 68.5 ( 13.1 1 93.3 I 2.7 I 4.0 6.1 57.3 i 12.4 82.0 3.1 14.9 23.2 167.9 1 3.8 1 97.3 1 0.0 1 2.7 I 20.6 1 73.0 I 4.6 1 98.3 1 0.0 1.7 18.4 1 73.8 1 4.9 1 97.4 I 0.4 1 2.2 18.5 1 74.8 14 0 I 98.0 I 0.6 1 1.4 18.0 173.0 1 5.4 ( 98.4 1 0.0 ( 1.6 1 17.1 1 73.3 I 5.1 i 96.4 ( 2.1 1.5 24.7 52.2 9.4 90.6 8.0 1.4 66.2 62.0 61.4 42.1 44.4 41.3 35.7 42_8 18.2 20.0 20.7 14.4 14.1 13.6 17.6 21.8, 98.9 1 98.5 1 97.0 66.8 69.9 67_1 63.7 1 76.2 0.0 0.4 1.4 5.2 4.7 9_5 13.6 5 E3 1.1 1.1 1.6 28.0 25.4 23.4 22.5 18.0 a .. m >=Sic.:Gr9w"%fw'd5i4�Fa�.ssvi.rr7.17�'.��:-sz s-SSi '.�.....;'a,7•� •-•.,�•�•.++ �' ;-- r Water content Hydraulic I Bulk I 1 density 1 tivity 1 ( field1barrl bar I bar (saturated)lmoisture)i I cln/hr i I ;,cc `-----F'cT I 1I (w j ----- ! ! 80.2 I I 1.53 1 1 3.81 1.91 0.9 63.7 1 1.56 1 2.71 201 0.9 0.9 80.8 1.55 1 301 251 0.7 60.5 i 1.58 2..61 2.31 I I 105_4 i I 1_38 1 I I 2 61 1_71 0_4 143 5 1_47 2_31 1 61 0_3 22.6 11.2 8.5 0.8 1.09 1.53 1.41 1.48 20.3' 7.3� 11.3', 21.0! I 14.81 6.5 3.71 0.7 7.11 1.8 17.81 6.9 24.3 ' 1.35 ' 1 1 9.8 7.0' 2.3 1.2 27.6 1.52 1 1 5.21 4.31 4.01 0.6 35.5 1.42 I 1 5.31 4.41 50.6 48.0 1.39 1 1.46 i 5.61 4.61 3.81 1.3 1.0 20.7 30.9 I 1.42 1 1.38 1 9.01 8.31 6.71 6.11 2.0 1.2 11.0 69.7 68.4 31.6 0.1 10.0 11_2 00 0.2 0.40 0.40 1.54 1.62 1_62 1.71 ' 1.78 ,1.84 1.82 139.2 148. E 3_R 3.5 20.4 17.5 13.E 14__ 13. E 115.7' 110.0 2.6 2.7 18.6 15.4 12_5 37.2 26.9 0.3 0.2 9.5 8_1 5.4 6.0 5_6 N 0 U) I Soil name and `Depth sample number I In Electra: S82FL-061-007-1 S82FL-061-007-2 S82FL-061-007-3 S82FL-061-007-4 S82FL-061-007-5 S82FL-061-007-6 S82FL-061-007-7 S82FL-061-007-8 Floridana: S83FL-061-017-1 S83FL-061-017-2 S83FL-061-017-3 S83FL-061-017-4 S83FL-061-017-5 S83FL-061-017-6 S83FL-061-017-7 S83FL-061-017-8 S83FL-061-017-9 Gator: S83FL-061-016-1 S83FL-061-016-2 S83FL-061-016-3 S83FL-061-016-4 S83FL-061-016-5 S83FL-061-016-6 S83FL-061-016-7 S83FL-061-016-8 S82FL-061-003-1 S82FL-061-003-2 S82FL-061-003-3 S82FL-061-003-4 S82FL-061-003-5 S82FL-061-003-6 S82FL-061-003-7 S82FL-061-003-8 S82FL-061-003-9 TABLE 19.--PHYSICAL ANALYSIS OF SELECTED SOILS --Continued Particle -size distribution I I I Water content I Sand i Silt i Clay I I l Horizonl Very (Coarse IMedium I Fine (Very I Total I I I Hydraulic I Bulk I I I lcoarsel(1.0- 1 (0.5- 1(0.25-(fine 1 (2.0- 1(0.05-1(<0.002) 1 conduc- I density 1 1/101 1/3 1 15 1(2.0- 1 0.5) 1 0.25)1 0.1) 1(0.1- 1 0.05) 10.002)I 1 tivity I (field 1 barl bar l bar 1 1.0) 1 I 1 1 0.05)1 1 1 1(saturated)lmolsture)l I I I I I I I I I I I I I I I iqm Mm ' 0- 5A ' 0.0 ' 3.2 1 5-171 E1 1 0.1 l 3.5 I17-301 E2 1 0.1 1 4.5 130-331 Bhl 1 0.1 I 4.0 133-361 Bh2 1 0.0 1 3.6 136-471 EB 1 0 0 1 3.4 147-591 Btgl 1 0.0 1 4.0 ;59-721 Btg2 11 0.1 4.4 0- 5' 5-14�, 14-20'I 20-30 30-34�1 34-371 37-53 53-68 68-80! 0- 6' 6-261 26-301 30-441 44-491 49-541 54-621 62-80 I 0- 81 8-131 13-331 33-361 36-41I 41-471 47-641 64-721 72-801 Ap + A I E Btgl 1 Btg2 1 BCg I Cgkl I Cgk2 Cgk3 0.3 0.2 0.3 0.2 0.2 1.8 1.0 5.4 0.6 10.5 10.2 14.4 8.2 7.6 7.4 7.6 10.0 5.6 ihm I Ib ! iim ' 33.6 ' 47.4 ' 13.6 I 302 1 47.0 i 17.1 ( 28.2 1 48.5 116.5 I 25..6 l 44.1 l 15,5 l 23.4 1 43.0 1 16.$ l 232 1 44,0 1 18.8 27.2 38.8 10.0 28.8 1 38.4 1 7.7 47.5 47.7 51.4 35.8 35.0 26.2 27.6 24.4 26.6 29.5 31.0 28.0 I 22.7 I 23.1 1 18.0 I 20.0 1 19.6 1 31.4 4.3 4.5 3.9 3.4 3.7 3.2 3.8 5.2 7.6 97.8 i { 1 1.1 1 1.1 97.9 1 1.5 I 0.6 97.8 i 1.5 i 0.7 89.3 I 5.4 I 5.3 86.8 1 6.4 1 6.8 89.4 l 6.9 1 3.7 80.0 i 2.8 1 17.2 79.4 i 2.7 i 17.9 92.1 I I I 2.1 I 5.8 93.1 1 2.3 l 4.1 98.0 I 1.4 i 0.6 70.3 1 5.5 1 24.2 69.6 1 6.9 1 23.5 56.6 1 22.4 I 21.0 60.0 1 21.0 1 19.0 64.6 1 15.4 1 20.0 71.8 7.2 21.0 Oap--- --- --- --- --- --- Oa- - --- Cgl 1 I 0.2 1 1 6.6 1 28.6 l 1 ( 23.1 I 8.5 I I 67.0 Cg2 1 0.0 5.0 23.0 1 17.2 1 5.4 l 50.6 Cg3 0.0 1 5.4 1 22.6 117.4 17.0 1 5.6 I 50.6 Cg4 I 0.2 i 5.2 i 23.2 117.9 I 5.6 I 51.6 Cg5 1 0.7 1 7.1 I 25.4 I 5.1 56.2 Cg6 0.7 7.9 31.7 22.9 7.2 70.4 Ap E1 E2 Bhl Bhl Bh3 BC Bbb C 0.0 ' 0.0 1 0.0 1 0.0 1 0.0 l 0.0 1 0.0 1 o.0 I 0.0 ' i 3.8 3.0 3.1 3.5 2.9 3.3 3.5 3.2 3.1 48.2 49.5 47.8 42.3 40.2 40.4 42.0 41.3 40.6 40.1 39.8 41.3 38.5 41.1 42.5 45.0 46.5 44.0 4.6 5.3 5:9 4.1 5.3 5.8 5.4 4.6 4.3 r 96.6 97.6 98.1 88.4 89.5 92.0 95.9 95.6 92.0 11.5 l 16.2 1 14.4 l 15.0 1 19.6 1 9.4 I 1.7 1 1.5 i 1.0 1 3.5 1 2.2 1 2.9 1 2.5 21.5 33.2 35.0 33.4 242 20..2 1.7 0.8 0.9 4.5 5.0 4.5 1.9 1.5 5.5 l �mihr I (j/cc I 1,t(vtJ---- 1 24.3 1 1.49 1 5.71 3.61 1.3 1 17.1 I 1.56 ( 4.41 3.11 0.9 1 16.8 1 1.54 1 3.91 2.11 0.8 I 22.6 1 1.28 1 17.81 14.51 4.0 1 4.5 I 1.30 1 24.91 20.81 6.5 1 10.7 1 1.52 1 8.91 '6.11 1.6 1 0.3 l 1.63 1 19.41 17.11 7.2 0.5 1 1.66 ' 16.51 14.11 5.8 I I I I I 30.3 41.4 25.6 26.3 21.6 11.0 27.9 9.2 8.0 1.39 1.17 1.47 1.21 1.32 1.45 1.52 1.55 1.62 7.8' 9.61 3.91 19.51 16.91 13.71 5.91 8.91 6.81 1 4.8' 1.5 7.5I 1.7 2.61 0.6 15.01 2.3 12.81 2.4 10,61 27 4.21 0..9 6.51 1.1 4.21 0.9 '�"'" i.'�'a'�`a1�.r�a:��.�9:�ti�'"�;�'i�`'„4..fr�hy�...,-�:-�...r.�s?..�s...,..`..5. �'x .�`V-'�w�.v". �. •*�..~e";`=,_� g••�= y. Sri-`..r.,� ��:xsm _ .... Soil name and sample number Depth I '{ r Horizon) Very lcoarsel 1(2 0- 1.0) In Jonathan: I I 1 I I 1 S83FL-061-019-1 0- 31 A. 0.1 S83FL-061-019-2 1 3-261 126-511 E E 1 0:2 1 1 0.3 S83FL-061-019-3 151-751 1 S83FL-061-019-4 175-801 E 0.8 0.1 S83FL-061-019-5 Bhm i Jupiter: { { 10- { 1 S82FL-061-009-1 51 1 Al 0.0 S82FL-061-009-2 5-12! A2 0.0 Manatee: { I S82FL-061-005-1 1 0- S82FL-061-005-2 1 3- S82FL-061-005-3 1 8-b 116-31 S82FL-061-005-4 130-4. S82FL-061-005-5 142-5 S82FL-061-005-6 S82FL-061-005-7 I54-7 Orsino: I S83FL-061-020-1 1 0- S83FL-061-020-2 1 2-2. 123-21 S83FL-061-020-3 126-4 S83FL-061-020-4 143-6 S83FL-061-020-5 162-8 S83FL-061-020-6 Palm Beach: I S83FL-061-020-1 1 0- S83FL-061-020-2 1 6-1 118-4 S83FL-061-020-3 S83FL-061-020-4 149-8 Paola: S82FL-061-013-1 0- S82FL-061-013-2 ( 2- S82FL-061-013-3 9-1 TABLE 19.--PHYSICAL ANALYSIS OF SELECTED SOILS --Continued Particle-size.distribution Sand i Silt i Clay Coarse (Medium I Fine )Very I Total I { (1.0- 1 (0.5- 1(0.25-)fine 1 .(2.0- 1(0.05-1((0.002)' 0.5) 1 0.25)1 0.1) i(0.1- 1 0.05) 10.002)' 0.05) Mm Mm' Mm Mm Mm I Mill Mm 15.1 ' 65.1 ' 17.4 16.0 1 61.9 1 19.5 17.4 1 57.3 { 22.3 18.6 1 56.3 { 22.1 12.7 567 23.5 1.2 ( 28.4 ; 52.6 1.6 1 28.3 1 52.2 1.3 ' 99.0 1.5 1 99.1 1.9 1 99.2 1.2 1 99.0 0.4 93.4 1 12 8 I 95.0 12.4 94.5 0.8 ' 0.2 0.2 1 0.7 0.4 1 0.4 0.1 1 0.9 3.3 3.3 4.9 1 0.1 2.4 3.1 iydraulic ' Bulk ' conduc- 1 density 1 tivity I (field saturated)imoisture) (in/hr { G/cc AP ( 0.1 1 4.2 1 42.3 32.0 6.6 1 85.2 1 5.0 1 1 9.8 ' I 12.2 ' 1.21 1 A I 0.0 1 3.9 1 42.7 1 31.2 1 6.1 1 83.9 8.5 7.6 II11 6.0 1.44 IIII BA 1 0.0 I 3.1 1 39.3 1 32.5 1 7.2 11(1 82.1 7.5 1I(1 I1I1 10.4 1..9 1.46 Bt 1I1 0.0 I1 3.4 11I 37.5 30.1 III i11i 69 77.9 10.4 11.7 0.0 1.61 Btgl 0.0 36 389 31.1 6.9 80.5 4.3 152 0.0 1.60 Btg2 0.0 4.2 42.8 29.4 5.0 81.4 5.6 13.0 01 1.57 2. 2 46.4 25.2 2.8 88.4 4.6 7.0Cg --- --- A ' 0.0 ' 0.3 ' 8.5 ' 72.4 ' 16.1 ' E 1 0.0 I 0.3 1 8.0 1 73.7 1 15.4 1 Bwl&Bh 1 0.0 1 `0.3 1 7.3 171.8 115.1 1 Bw2&Bh 1 0.0 1 0.3 1 7.4 { 72.7 1 15.1 BC 1 0.0 1 0.3 1 6.6 1 74.4 1 15.2 1 C 0.0 ! 0.2 5.5 71.4 ; 15.3 A ' Cl 1 C2 1 C2 ( A E !( BSI nw 0.5 ' 10.2 ' 64.9 ' 21.3 ' 0.5 ' 0.2 1 10.8 I 63.6 122.8 I 0.5 0.1 i 3.1 I 61.3 133.8 I 0.4 0.1 3.6 65.8 29.1 ; 0.3 0.1 ' 9.2 0.0 ( 8.2 0.0 8.2 0.0 ' 8.3 73.6 ' 16.3 69.8 19.8 69.7 20.2 ,68 2 20.6 ' 61 2 . 27.2 60 1 , 27.0 0.3 0.6 0.7 0.6 1.0 3.' 2 97.3 ' 2.3 97.4 1 1.3 94.5 1 1.8 95.5 1 1.6 96.5 1 1.0 92.4 3.6 I 97.4 1 0.9 97.9 1 0.7 987 I 0.3 98..9 i 0.2 99.5 1 0.0 98.4 0.6. 98.8 .0.2 97.7 O 5 97.2 ( O 4' 976 ; O5 0.4 i --- 1.3 --- 3.7 ± --- 2.7 --- 2.5 l --- 4.0 I i --- 1.7 --- 1.4 --- 1.0 { --- 0.9 l { --- 0.5 ( 67.1 1.0 ( 94.7 1.0 101.3 1.8 ( 146.0 2 4 ( 130_1 1 9 128a5 1.39 1.42 1.62 1_56 1.48 1.52 N O 0) Water content 1/101 1/3 i 15 barl bar { bar ----- cttwtl----- I r ---I I � { I 24.01 18.5' 17.51 13.4 16.41 14.1, 16.51 14.2 18.11 15.7 16_21 13_6 I ( 7.9 4.2 2 4 ( 2.5 1.9 1 2.0 7.9 5.2 5.7 5.1 5.7 5_4 ( 5.31 2.1 2.8) 1.0 1.51 0.3 1.51 0.5 1.2) 0.4 0 Ll+ 0.3 C A. k TIWL 19.--YHY�llxi �` _.._- Soil name and sample number Pepper: S82FL-061-010-1 S82FL-061-010-2 S82FL-061-010-3 S82FL-061-010-4 S82FL-061-010-5 S82FL-061-010-6 S82FL-061-010-7 S82FL-061-010-8 Perrine Variant: S82FL-061-001-1 S82FL-061-001-2 S82FL-061-001-3 St. Lucie: S82FL-061-014-1 S82FL-061-014-2 S82FL-061-014-3 S82FL-061-014-4 {Depth{Horizon{ Very I { Icoarse 1 1 1(2.0- { 1.0) to 0- 21 2- 81 Al 1 A2 1 E 1 0.1 0.2 0.3 B-221 22-271 27-321 Bh 1 Bhm 1 0.5 0.3 32-391 39-471 B'h 1 BE 1 0.4 0.5 47-601 Btg i 0.5 0- 61 6-201 Ap 1 Ckgl 1 1 1.1 2.1 6.2 20-241 Ckg2 1 0- 31 1 A 1 0.0 3-301 30-561 C 1 C 1 0.0 0.1 56-801 1 C ' f 0.3 ar icle-s ze IlstrT u (on Sand stir i ulay i Coarse IMedium (1.0- 0.5) I I Fine {Very 1 (0.5- 1(0.25-Ifine i 0.25)1 0.1) 1(0.1- 1 1 0.05)1 I Total 1 (2 0- 1 0.05) I Si 1(0. I0.0 { Mm Mm Mm Mm _ _ 19.4 1 66.5 112.8 I 0.6 1 99.4 I 13.5 1 69.0 1 15.1 1 0.9 1 98.7 1 13.5 1 64.3 1 19.1 1 1.8 { 99.0 1 13.7 1 59.1 118.4 1 1.6 1 93.3 1 2 13.1 1 60.0 1 20.0 1 1.7 I 95.1 1 1 11�3 1 58.5 1 20.3 1 1.9 1 92.4 1 1 I 14'2 1 60.2 1 18.1 1 1.8 1 94.8 1 1 13.3 i 53.8 i 13.9 1.1 + 82.6 i 2 I 6.5 I 19.6 1 35.6 1 8 9 1 71.7 113 I 5 9 I 10.9 1 21.7 ( 7.7 I 48.3 1 26 8.6 i 11.1 i 19.9 i 8.4 + 54.2 i 21 I 8.3 1 67.8 1 22.7 1 1.0 1 99.8 1 0 8.9 I 66.6 1 22.9 1 1.1 i 99.5 { 0 I 16 1{ 63.8 1 18.2 I 1.0 I 99.2 10 23.3 ! 60.5 i 14.7 i 0.7 i 99.5 i 0 It I Clay I Hydraulic 05-1(<0.002) 1 conduc- 02)1 1 tivity (saturated) m . elm �milir 0.1 ' 0.5 128.0 0.5 1 0.8 1 105.0 D.1 1 0.9 1 93.3 9 I 3.8 1 2.0 .2 ! 3.7 2.5 .8 i 5.8 .9 3.3 .1 15.3 .2 ' 15.1 ' 6.8 ' 6 1 25.1 1 4.3 I .0 24.9 ` 2.6 .0 I 0.2 1 69.0 1 1 1 0.4 1 101.0 i •1 1 0.7 I 124.5 1 .0 0.5 125.3 iWater content I Bulk density 1 1/101 113 1 15 (field I barl bar 1 bar moisture) G/cc I - --�'cT t lwt T ( I { 1.31 I 5.2I 4.11 1.5 1.50 1 3.61 2.81 0.9 1.59 1 3.81 3.31 0.6 0.94 1 46.21 38.01 9.1 1_44 i 17 01 14 11 3_4 0.89 1 38 21 31.0113.0 1.26 1 26.11 228115.5 1.36 1 24.01 21:2110.4 1.55 1 3 41 2.61 1.5 1.63 1 2.21 1.91 0.8 1.52 1 2.31 1.91 0.6 1.58 1 1.611 1.21 0.3 N O v ---�-� w _ e..:-...�.. . � r.� � ..� .� v�g�,�.", •+�'�" ., � - ` -% 'w'' we "ice` .8 i 5.8 .9 3.3 .1 15.3 .2 ' 15.1 ' 6.8 ' 6 1 25.1 1 4.3 I .0 24.9 ` 2.6 .0 I 0.2 1 69.0 1 1 1 0.4 1 101.0 i •1 1 0.7 I 124.5 1 .0 0.5 125.3 iWater content I Bulk density 1 1/101 113 1 15 (field I barl bar 1 bar moisture) G/cc I - --�'cT t lwt T ( I { 1.31 I 5.2I 4.11 1.5 1.50 1 3.61 2.81 0.9 1.59 1 3.81 3.31 0.6 0.94 1 46.21 38.01 9.1 1_44 i 17 01 14 11 3_4 0.89 1 38 21 31.0113.0 1.26 1 26.11 228115.5 1.36 1 24.01 21:2110.4 1.55 1 3 41 2.61 1.5 1.63 1 2.21 1.91 0.8 1.52 1 2.31 1.91 0.6 1.58 1 1.611 1.21 0.3 N O v ---�-� w _ e..:-...�.. . � r.� � ..� .� v�g�,�.", •+�'�" ., � - ` -% 'w'' we "ice` iWater content I Bulk density 1 1/101 113 1 15 (field I barl bar 1 bar moisture) G/cc I - --�'cT t lwt T ( I { 1.31 I 5.2I 4.11 1.5 1.50 1 3.61 2.81 0.9 1.59 1 3.81 3.31 0.6 0.94 1 46.21 38.01 9.1 1_44 i 17 01 14 11 3_4 0.89 1 38 21 31.0113.0 1.26 1 26.11 228115.5 1.36 1 24.01 21:2110.4 1.55 1 3 41 2.61 1.5 1.63 1 2.21 1.91 0.8 1.52 1 2.31 1.91 0.6 1.58 1 1.611 1.21 0.3 N O v ---�-� w _ e..:-...�.. . � r.� � ..� .� v�g�,�.", •+�'�" ., � - ` -% 'w'' we "ice` 69/11/209� TILT 16:36 FAX 561 589 6469 KSM ENGINEERING 16001 . ISM KELLER, SCHLEICHER & MacWILLiAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIAN, FL 32978-1377 FAX (772) 589-6489 SEBASTIAN '772) 589-0712 E 8,; 5C99 MELBOURNE (321) 768-8482 ST. LUCiE (T72) 229-9C93 September 11, 2003 Jeffrey Blackstone The Coy Clark Co. 575 South Wickham Road West Melbourne, Florida 32904 Re: Soil Borings Ashbury Subdivison 56 Acre Parcel in 6.315-39E Sebastian, Florida KSM 34625 Gentlemen: As requested, KSM Engineering & Testing has performed a subsurface investigation at the referenced site. Presentation of the data gathered during the investigation, together with our geotechnical related opinions, are included in this report_ A. Site Description: At the time of drilling, the site was fairly flat with moderate to heavy underbrush and trees. Due to the underbrush and trees, the site was not accessible to our truck mounted drill -rig. B- Project Description: The proposed project will consist of a single family development. Roadways will also be constructed for the project. Lakes will be constructed for stormwater detention and as a fill source. 69/11/2003 THU 16;36 FAX 561 589 6409 KSM ENGINEERING IM002 KSM KELLER, SCHLEICHER & MaCWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 7$-1377, SEBASTIAN, FL 32978-1877 FAX (772) 589-6469 MELBOURNE (321) 768-5488 E.B.: 5693 ST. LUCIE (772) 229-9093 Ashbury S/D -2- September 11, 2003 C. The scope of our sturdy consisted of the following: 1. Performed hand-augered test borings in the proposed roadways and construction area lakes. 2. Measured the groundwater level at each boring and estimated the normal high season water table in the Lake borings. 3. Obtain shelby tube soil samples and performed permeability test on the samples in our laboratory. 4. Prepared this report to document our findings. D. Site investigation: The site investigation program consisted of performing ten (10) hand -auger borings with static cone penetrometer readings in the proposed roadways to depths of 6 feet below existing grade and two (2) hand auger borings were performed in two (2) of the lakes. Also, four (4) shelby tube samples were obtained from two (2) of the lakes for permeability testing In our laboratory. During the hand -auger borings with Penetrometer readings, a shaft with a conical point is pushed through the soil and the thrust required to push the cone tip is measured on an attached calibrated gauge. The value of the bearing pressure exerted by the cone point allows the operator to estimate the existing soil density. After the thrust was measured, the hole was advanced with a hand -auger in 1-foot increments to permit a continuation of measurement of relative density versus depth. The records of the soils encountered, the penetration resistances and groundwater level are shown on the attached logs. E. Engineering Evaluation And Conclusions: Based on the information obtained from this site investigation we are pleased to offer the following evaluation: 09/11/2003 THU 16:37 FAX 561 589 6469 ISM ENGINEERING Cj003 K S M KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.Q. BOX 78-1377, SEBASTIAN, FL 32978-1377 FAX (772) 569-6469 SEBASTIAN (772) 589-0712 BOURNE E.B.: 5693 ACE ST. UCIE (772) 229. 093 Ashbury S/D -3- September 11, 2003 The boring logs indicate the subsurface conditions to be fairly uniform across the site_ The soils consist mostly of fine-grained sand. Penetrometer readings recorded during the boring operation in the proposed roadways indicate the soil density is loose to medium dense. Please refer to the boring logs for specific information relative to the soil description. F. Roadway: The material below the proposed roads in their condition are suitable to support the roads. We did not find any material (muck, silt, etc.) that: would require any modification. Therefore, the roadways may support a flexible pavement. The minimum pavement design should include the following: Clear the drives of any surface debris, including vegetation, roots and organic matter. Stumps shall be removed entirely. The cleared areas should be graded level and proofrolled. Any soft yielding areas shall be excavated and replaced with clean compacted fill. Sufficient passes should be made during compaction operations to produce a density no less than 95 percent of its modified proctor value (AASHTQ T180) to a depth of two feet. Additional fill shall consist of clean granular sand containing less than 8% material passing the U.S. Standard No. 200 mesh sieve and placed in loose layers of 12" and compacted to the above densities. Eight inches of suitable clayed soil having a Limarock Bearing Ratio (LBR) of 40 or a Florida Bearing Value (FBV) of 50 should be used for the stabilized sub -grade and compacted to 98 percent of its modified proctor value (AASHTQ T180). Six inches of cemented coquina rock (LBR 100) or limerock should be compacted to 98% of its modified proctor value (AASHTQ T180). A minimum of 12" separation should be maintained between the bottom of the base and the high seasonal groundwater table. The asphalt wearing surface should consist of 1-1/2" of Type S-1 or S-3 in accordance to the "Florida Department of Transportation Standard Specifications for Road and Bridge Construction'. 0�/11/2003 THU 16:38 FAX 501 389 6489 KSH ENGINEERING WJUUa KSM KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIAN, FL 3297$-1377 FAX (772) 589-5469 SEBASTIAN MELBOURNE (321) 768-8488 E.B.: 5693 ST. LUC;IE ;772) 229-9093 Ashbury SID Ma G. Detention Lakes Permeability Tests: September 11, 2003 The following table indicates the measured water table along with our estimated high season water table for each test location: TEST LOCATION 1See Location Plan) P-1, A-1 P-2, A-2 MEASURED WATER TABLE 12" Below Grade 48" Below Grade ESTIMATED HIGH SEASON WATER TABLE 6" Below Grade 28" Below Grade The following table indicates the horizontal and vertical flow rates for each test location: TEST LOCATION HORIZONTAL FLOW VERTICAL FLOW (See Location Plan) RATE RATE P-1 12� 11.7 Ft/Day @ 16" Depth 24.2 Ft/Day @a 16" Depth 9.5 Ft/Day a@ 16" Depth 20.5 Ft/Day @ 16" Depth This estimate is based upon our interpretation of existing site conditions and a review of the USDA Soil Survey for Indian River County, Florida. 0/11/2003 THU 16:38 FAX $61 589 6469 KSM ENGINEERING 10005 KSM KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIAN, FL 32978-1377 FAX (772) 589-6469 SEBASTI,AN (772) 589-C712 EA.: 5693 ME STDJRNE UDE (772) 229 9093 Ashbury S/0 -5- September 11, 2003 H. Fill, Source: The hand auger soil borings performed at the site generally encountered fine-grained sand. Percent fine analysis was performed on six (6) soil samples that represent the typical soil stratas we found on the site. Please note that deeper borings below 6 feet could not be perform since the site was not accessible to our truck mounted drill -rig. A brief description of the soil profiles based on our visual examination and percent "fines" passing the U.S. #200 Sieve is presented below. For more information, please refer to the attached boring logs and sieve analysis logs. PERCENT FINE'S BORING DEPTH OF SOIL PASSING THE LOCATION SAMPLE DESCRIPTION #200 SIEVE HA-1 45" - 7211 Dk. Brown Sand 5.0 HA-3 48" - 72" Lt. Brown Sand 1.4 HA-4 38" - 72" Grayish Brown Sand 2.2 HA-5 6" - 40" Lt, Gray Sand 1.2 HA-7 0" -101, Gray Sand w/Roots 1.2 HA-10 0" - 10" Gray Sand w/Roots 1.0 A sand which have 5 percent or less soil fines is considered to be clean sand. These soils are the most desirable as structural fill because they drain freely when excavated below the groundwater table and are not moisture sensitive. The soils encountered In the 6 feet soil profiles all have 5 percent or less soil "fines" and therefore are considered a structural fill source for foundations, floor slabs, or pavement areas. Please note that raking of these surface soils may be required to remove roots, stumps or any other deleterious matter. 0QV11/2003 THU 16;39 FAX 561 589 6469 KSM ENGINEERING WJUUD KSM KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIAN, Flr 32978-1377 FAX (772) 569-8469 MELBOURNE SEB(772 769-07i2 URNE {327� 768-848B E.B.: 5693 ST. LUCIE (772) 229-9093 Ashbury S/0 -$- September 11, 2003 1. Closure This report has been prepared for the project in accordance with generally accepted soil and foundation engineering practice. We are pleased to be of assistance to you on this phase of your project. When we magi be of further service to you or should you have any questions, please feel free to 1 f f �Oald-G. feller, P.E. f f� Joe Schulke, P.E. sb � L I 99i11/2003 THU 16:39 FAX 561 589 6489 KSM ENGINEERING 9007 ,a S 1 KELLER, SCHLEICHER & MacWILLIAM ENGINEERING �AND EBES�TNI`NG772) 58INC. 712 P.0. BOX 78-1377, SEBASTIAN, FL 3297 8�-1377 MELBOURNE (321) 766-8488 E.B.: 6693 5T. LUGiE (772) 229-9093 Date September 2, 2003 Location: Ashbury Subdivison 56 Acre Parcel in 6-319-392 Sebastian, Florida HA-1, See Attached Location Plan ----'----- DEPTHStrata PEN DESCRIPTION OF IN FEET FROM -TO READINGS SOILS ----------------------------------------------------------- -0 - 0" - 12" Dark Gray Sand with Roots -1----------------------------- i2----------------------------- z2" - 48" Light Gray Sand -2 - 24 -3- 27 -4- ---------------------------- 30---------------------------- 48" - 72" Dark Browil Sand -5- 33 -6----------------------------- 40----------------------------- Water Table : 50n Below Existing Grade Job ##: KSM 34625-1ha 09,111/2003 THU 16:39 FAX 561 589 6469 KSM ENGINEERING U008 KM KELLER, SCHLEICHER & MaoWILLIAM ENGINEERING AND TESTING, I�NG,772) INC. P.G. BOX 7$-1377, S1=BASTfAN, FL 3297E-1377 ) 9-0712 MELBOURNE (321) 768-6468 E.B.: 5693 ST. LUCIE (772) 229-9095 Lute : September 2, 2003 Location: Ashbury Subdivison 56 Acrq Parcel in 6-319-39B Sebastian, Florida RA-2, See Attached Location Plan ----------------------- DEPTH Strata PEN DESCRIPTION OF IN FEET FROM -TO READINGS SOILS ---------------------------------------------------------------- -0- on _ 8ff Dark Gray Sand with Roots -1- --- 24 Light Gray Sand with Some Marl -2- 27 -3- 30 -4- 30 -5----------------------------- 32----------------------------- 60" - 72" Dark Brown. Sand -6----------------------------- 35------------------------- -- Water Table : 58" Below Existing Grade Job #: KSIM 34625-2ha 09/11/2003 THU 16:40 FAX 561 589 6489 KSH ENGINEERING IM009 SM KELLER, SCHLEICHER & MaoWILLIAM ENGINEERING AND TESTING, INC. P.Q. BQX 78-1377, SEBAST4AN, FL 32978-1377 FAx (772) 589 6469 MELBOURNE (321) 768-6486 E.B.: 5693 ST. LUDE ('T72) 229-9093 Date September 2, 2003 Location: Ashbury Subdivison 56 Acre Parcel in 6-31.5-39E Sebastian, Florida HA-3, see Attached Location Plan ---------------------------- - DEPTH Strata FEINT DESCRIPTION OF IN PEET FROM -TO READINGS SOILS ---------------------------------------------------------------- -0- On - 48" White Sand -1- 24 -2- 28 -3- 32 -4- ----------------------------- 34----------------------------- 46" - 70" Lt. Brownish Gray Sand -5- 34 ----------------------------------------------------------- -6----------70" - 72"---------- 40-------- Dark Brown Sand------ WaterTable : 64" Below Existing Grade Job #: KSM 34625-3ha "/11/2003 THU 16:40 FAX 561 589 6469 KSM EI*GINEERING 0010 KSM KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIAN, FL 32976-13i7 FAX (772) 589-6469 S ESASTIAN (772) 589-0712 E.B.: 5693 MELBOURNE (321) 768-8488 ST. LUCIE (772) 229-9093 Date September 2, 2003 Locations: Ashhury Subdivison 56 Acre Parcel in 6-31S-39E Sebastian, Florida HA-4, See Attached Location Plan ---------------------------------------------------------------- DEPTH Strata PEN DESCRIPTION QF IN FEET FROM -TO READINGS SOILS ---------------------------------------------------------------- 12" Dark Gray Sand with Roots -1----------------------------- 27----------------------------- 12" - 38" Light Gray Sand - 2 30 -3- 30 ------------------------------------------------------------ 38" - 72" Grayish Brown Sand -4 - 34 -5- 32 -6- ---------------------------- 40----------------------------- Water Table : 42" Below Existing Grade Job #: KSM 34625-4ha U9111/2003 THU 16:40 FAX 561 589 6489 ASH ENGINEERING [J011 KS lid KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIAN, FL 32978-1377 FAX (772) 5a9.6469 SEBASTIAN (772) 589-0712 M ELBO U RNE (321) 768-8466 E,B.: 5693 ST. LUCIE (772) 229-9093 Date September 2, 2003 Location: Ashbury Subdivison 56 Acre Parcel in 6-315-39E Sebastian, Florida HA-5, See Attached Location Plan DEPTH -------- Strata PEN DESCRIPTION Or IN FEET FROM -TO READINGS SOILS ---------------------------------------------------------------- - 0 - 0 "" - 6" Gray Sand with Roots ----------"---- 6" _ 40' Light Gray Sand -2- 31 -3- 32 ----------------------------------------------------------- 40" - 72" Brown, Sand -4 - 34 -5 34 -6----------------------------- 35----------------------------- Water Table : 44" Below Existing Grade Job #: KSM 34625-5ha 00/11/2003 THU 16:41 FAX 561 589 6469 KSM ENGINEERING 9 012 K S KELLER, SCHLEICHER & MaoWILLIAM ENGINEERING AND TESTING, INC. Pa. BOX 78-1377, SEBASTIAN, 1=L 32978-1377 FAX (772) 569.6469 SEBASTIAN (772; 589-0712 MELBOURNE (321) 766-6488 E. 3,: 5693 ST. LUCIE (772) 229-9093 Date September 2, 2003 Location: Ashbury Subdivison 56 Acre Parcel in 6-315-39E Sebastian, Florida HA-6, See Attached Location Plan ---------------------------------------------------------------- DEPTH Strata PEN ]DESCRIPTION OF IN FEET PROM -TO READINGS SOILS ---------------------------------------------------------------- -0- D" - 10" Gray Sand with Roots ----------------------------------------------------------- -1- 101, - 50" 27 Light Gray Sand -2 - 32 -3- 34 -4- 30 ----------------------------------------------------------- 50" - 72" Brown Sand -5- 36 -6------------------------------------------------------------- Water Table : 54" Below Existing Grade Job #: KSM 34625-6ha 0V1112003 THU 16:41 FAX 561 589 6469 KSH ENGINEERING tqjV10 K S KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. RO BOX 78-1377, SEBASTIAN. FL 32978-1377 FAx,772) 569.6469 SEBASTIAN (772) 589-0712 MELBOURNE (321) 7$8.8488 E.R; 5693 ST. LUCIE (772) 229-9093 Date September 3, 2003 Location: Ashbury 8/1) 56 Acre Parcel in 6-31S-39E North of CR512 Sebastian, Florida RK-7, See Attached Location Plan RA-7 DEPTF_ `- Strata PEN DESCRIPTION OF IN FEET FROM -TO READINGS SOILS ---------------------------------------------------------------- -0- 011 - 101, Gray Sand w/Roots -1- ----------------------------------------------------------- 100 - 44" 25 Light Gray Sand -2- 35 -3 - 33 ------------------------------------------------------------ 44k - 72" Brown Sand -4- 35 -5- 40 -6----------------------------- 38---------------------------- Water Table ; 50" Job $#: KSM 34625-7ha 09'/11/2003 THU 16.41 FAX 561 589 6489 KSH ENGINEERING Q 014 KSM KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIA,N, EL 3297E-1377 FAX (772) 589-6469 SEBAS' IAN (772) 589-0712 MELBCUI�NE (321) 768-848$ E.B.: 5693 57. LUCIE (772) 229.9093 Date September 3, 2001 Location: Ashbury S/A 56 AQre Parcel in 6-215-39E North of CR512 Sebastian, Florida HA-8, See Attached Location Plan HA-3 ---------------------------------------------------------------- DEPTI4 Strata PEN DESCRIPTION OF IN FEET FROM -TO REAI"JIIVGS SOILS -------------------------------------------------_-------------- -0- on - 6„ Gray Sand w/Roots ----------------------------------------------------------- 6" - 44" Light Gray Sand -1- 28 -3- 30 ------------------------------------------------------------ 44° - 72" Grayish ErQwn Sand -4- 32 -5- 36 -6----------------------------- 36---------------------------- Water Table : 50" JQb #; KSM 34625-8ha 09/11/2003 THU 16:42 FAX 561 589 6469 ESM ENGINEERING 9015 KSM KELLER, SCHLEICHER & MaCWILLIAM ENGINEERING AND TESTING, INC. P.C, BOX 78-1377, SEBASTIAN, FL 32978-1377 FAX (772) 589-6469 S=BASTIAN (772) 589-0712 E.B.: 5fi93 MELBOURNE (321) 768•$486 ST. LUCIE (772) 229-9093 Date September 3, 2003 Location: Aehbury S/D 56 Acre parcel in 6-316-39E North of CR512 Sebastian, Florida HA-9, See Attached Location Plan HA-9 ------------------------------------------------------------ DEPTH Strata PEN DESCRIPTION OF IN FEET FROM -TO READINGS SOILS ---------------------------------------------------------------- -0- 0" - 6" Gray Sand w/Roots 6" - 40" Light Gray Sand W1- 30 -2- 34 -3- 33 -_---------------------------------------------------------- 40° - 72" Brawn Sand -4- 36 -5- 40 -6----------------------------- 40---------------------------- Water Table : 46" +Job #: KSM 34625-9ha 09/11!2003 THU 16:42 R.X 561 589 6469 KSM ENGINEERING to Old KSM KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.Q. BOX 79-1377, SEBASTIAN, FL 32978-1377 FAX (772) 589-6469 SEBASTIAN (772) 589-0712 E.B.: 5693 MELBOURNE (321) 76M488 ST. LUCIE (772; 229-9093 Date SepteMber 3, 2003 Location: Ashhury S/D 56 Acre Parcel in 6-315-39E North of CR512 Sebastian, Florida HA-10, See Attached Location Plan HA-20 ---------------------------------------------------------------- DEPTH Strata FEN DESCRIPTION OF IN FEET FROM -TO READINGS BOILS ---------------------------------------------------------------- -0- 0" - 10" Gray Sand w%Roots - -1- 10" - 24 Light Gray Sand -2 - 27 -3- 30 -4- 46" - 72" 34 Srown Sand ---'--- -5- 40 -6----------------------------- 40----------------------- Water Table : 52" KSM 34 62 5 -10ha 0M1/2003 THU 16:42 FAX 561 589 6469 KSM ENGINEERING Q017 L 1 S 1►'l KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.Q. BOX 78-1377, SEBASTIAN, FL 32978-1377 FAX. (772) 589-6469 SEBASTIAN (772) 569-4712 E.B.: 5693 ME STG UGIE (T72) 229 9Q93 Date September 2, 2003 Location: ABhbury S/D 56 Acre Parcel North of County Road $12 Sebastian, Florida A-1, See Attached Location Plan Depth Strata in Feet From -Tea Description of Soil -0- On - SM Gray Sand w/Roots ---------------------------------------------------- 40" Lt. Gray Sand w/some Roots MM -3- -------------------------------__------------------------ 40" -- 72" Dk. Brown Sand -4 -5- -6------------------------------------------------------------ Water Table : 12" below existing surface Job #: KSM 34625-1a U9/11/2003 THU 16:43 FAX 561 589 6469 KSH ENGINEERING 018 SM KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIAN, FL 32978-1377 FAX (772) 589-i469 SEBAS71AN (772) 589-0712 E_B.:5693 MELBOURNE (321) 760-6466 ST. LUC E (7. 2) 229-9093 LABORATORY PERMEABILITY - CONSTANT HEAD METHOD (ASTM 2434) DATE OF TEST: September 3, 2001 PROJECT NO. KSM 34625-1ph CLIENT The Coy A. Clark Company LOCATION Ashbury Subdivision 56 Acre Parcel Sebastian, Florida Pbl, See Attached Location Plan @ Location P-1 SAMPLE DESCRIPTION = Lt. Gray Sand DEPTH @ SAMPLE LOCATION = 16 INCHES (Sample Taken Rorizantally) LENGTH OF SAMPLE ALONG PATH OF PLOW = 5.5 INCHES DIAMETER OF SAMPLE _. 3 INCHES QUANTITY OF FLOW 400 MILLITERS TIME INTERVAL OF TEST - 10 MINUTES DIFFERENCE IN HYDRAULIC HEAD ACROSS THE SAMPLE = 19 31 INCHES THE RESULTS OBTAINED FROM OUR LABORATORY PERMEABILITY TEST, WHERE K IS THE COEFFICIENT OF PERMEA51LLI"LAY = 11.7 FEET/DAY 00/11/2003 THU 16:43 KAX 561 589 6469 KSK ENGINEERING 2019 SlIl KELLER, SCHLEICHER & MeeWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIAN, FL 32976-1377 FAX (772) 589-6469 SEBASTIAN (772) 689-0712 URNE E,8 ; 5693 E ST LUCIE {772) 229-9093 LABORATORY PERMEABILITY - CONSTANT HEAD METHOD (ASTM 2434) DATE OF TEST: September 3, 2003 PROJECT NO. KSM 34625-lpv CLIENT The Coy A- Clark Company LOCATION Ashbury Subdivision 56 Aare Parcel Sebastian, Florida Pvl, See Attached Location Plan T Location P-1 SAMPLE DESCRIPTION - Lt. Gray Sand DEPTH Q SAMPLE LOCATION 16 INCHES (Sample Taken Vertically) LENGTH OF SAMPLE ALOX0 PATH OF FLOW = 5.5 INCHES DIAMETER OF SAMPLE 3 INCHES QUAXTITY OF FLOW = 325 MILLITERS TIME INTERVAL OF TEST W 10 MINUTES DIFFERENCE IN HYDRAULIC HEAL? ACROSS THE SAMPLE = 19 X INCHES THE RESULTS OBTAINED FROM OUR LABORATORY PERMEABILITY TEST, WHERE K IS THE COEFFICIENT OF PERMEABILITY = 9.5 FEET/DAY 09/11/2003 THU 16:44 FAX 561 589 6469 KSM ENGINEERING Z020 KSM KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIAN, rL 32976-1377 FA)( (772) 589 69 MELBOURNE (321) 768-6466 E.B.: 5693 ST. LUCIE (772) 229-9093 Date September 2, 2G03 Location: Ashbury S/D 56 Acre Parcel North of County Road 512 Sebastian, Florida A-2, See Attached Location Plan Depth Strata in Feet From -To Description of Sail -0- p„ - 611 Gray Sand W/Roots ----- ^- - - - - -- 6" - 44" Lt. Gray Sand -1- -2- -3- ---------------------------------------------------------- 44" - 72" Grayish Brown Sand -4- _S- -6----------------------------------------------------------- Water Table : 48" below existing surface Job #: KSM 34625-2a 0/11/2003 THU 16:44 FAX 561 580 6489 KSH ENGINEERING 10021 K S LYl KELLER, SCHLEICHER & MeeWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIAN, FL 32978-1377 FAX (772) 589-64M SESASTIAN (772) 589-0712 E.B.: 5693 MELBOURNE S1. LUIE ( C772) 229.9093 LABORATORY PLU49ABILITY - CONSTANT HEAD METHOD (ASTM 2434) DATE OF TEST: September 3, 2003 PROJECT NO. KSM 34625-2ph CLIgNT The Coy A. Clark Company LOCATION Ashbu.ry Subdivision 56 Ar-re Parcel Sebastian, Florida Ph2, See Attached Location Plan 0 Location P-1 SAMPLE DESCRIPTION = Lt. Gray Sand DEPTH 0 SAMPLE LOCATION = 16 INCHES (Sample Taken Horizontally) LENGTH OF SAMPLE ALONG PATH OF FLOW = 5.5 INCHES DIAMETER OF SAMPLE = 3 INCHES QUANTITY OF FLOW - 825 MILLITERS TIME INTERVAL OF TEST = 10 MINUTES DIFFERENCE IN RYDRAULIC HEAD ACROSS THE SAMPLE - 19 % INCHES THE RESULTS OBTAINED FROM OUR LABOPATORY PERMEABILITY TEST, WHERE K IS THE COEFFICIENT OF PERMEABILITY = 24.2 FEET'JDAY Oi/11/2003 THU 16:44 FAX 561 589 6469 SSM ENGINEERING 0022 K S KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. R0. BCX 78-1377, SEBASTIAN, FL 32978-1377 FAX (772) 589-6469 SEBASTIAN (772) 589-0712 E.B.; 5893 ME STQURNE LUC E (772) 220-9093 LABORATORY PERMEABILITY - CONSTANT HEAD METHOD (ASTM 2434) DATE OF TEST: September 3, 2003 PROJECT NO. KSM 34625-2pv CLIENT The Coy A. Clark Company LOCATION Ashbury Subdivision 56 Acre Parcel Sebastian, Florida Pv2, See Attached Location Plan @ Location P-1 SAMPLE DESCRIPTION = Lt. Gray Sand DEPTH @ SAMPLE LOCATION 16 INCHES (Sample Taken Vertically) LENGTH OF SAMPLE ALONG PATH OF FLOW = 5.5 INCHES DIAMETER OF SAMPLE = 3 INCHES QUANTITY Or FLOW 700 MILLITERS TIME INTERVAL OF TEST - 10 MIlrUTES DIFFERENCE IN HYDRAULIC HEAD ACROSS THE SAMPLE = 19 % INCHES THE RESULTS OBTAINED FROM OUR LABORATORY PERMEABILITY TEST, WHERE K IS THE COEFFICIENT OF PERMEABILITY - 20.5 FEET/DAY 09/11/2003 THL' 18:45 FA1 581 589 6469 HSM ENGINEERING 1 023 K 1 ice, KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TES EATING, INC. R,O. BC?( 7$-1377, SEBASTIAN, FL 3297$-1377 MELBOJHNE (321) 768.8428 E.6.: 5693 S I. LUCIE (772) 229-9023 GRAIN SIZE ANALYSIS (ASTM D422) Date Tested: September 9, 2003 Client: The Coy Clark Company Project- Ashbury Subdivision Job No.: KSM 34625 Location of Sample: I4A-1 (48" -72" ) Description of Soil: Dark Brown Sand Sample No.: 1 'rested By: Tony Sieve Weight Percent Cumulative Size. Retained Retained Retained No. 4 .0 .0 .0 No. 10 .0 .0 .0 No. 20 .0 .0 .0 No. 40 228.0 45.6 45.6 No. 100 232.0 46.4 92.0 No. 200 11.0 2•2 Pan 1.0 Unwashed Weight = 500.0 gm. Washed Weight = 476.0 gm. Fines By Washing = 24.0 gm. Fines By Sieving 1.0 gm. Total Fines - 25.0 gm. Percent By Dry Weight Of Material Passing The U.S. Standard No. 200 Sieve = 5.0 Percent Passing 100.0 100.0 100.0 54.4 8.0 09/11/2003 THU 16:45 FAX 561 589 6469 KSM ENGINEERING Q6024 KSM KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.O. BOX 78-1377, SEBASTIAN, FL 32978-1377 FAX (772) 589 6469 SEBASTIAN 589,0712 MELBOURNE (321) 7eB-6488 E.B.: 5693 ST- LUCIE (772) 229-9093 GRAIN SIZE ANALYSIS, (ASTM D422) Date Tested: September 9, 2003 Client: The Coy Clark Company Project. Ashbury Subdivision Job No.: KSM 34625 Location of Sample: HA-3 (48°-70" Description of Soil: Light Brownish Sand Sample No.: 2 Tested By: Tony Sieve Weight Percent Cumulative Percent. 1. Size Retained Retained % Retained Passing No. 4 .0 .0 .0 100.0 No. 10 .0 .0 .0 100.0 No. 20 .0 .0 .0 100.0 No. 40 224.0 44.s 44.8 55.2 No. 100 264.0 52.8 97.6 2.4 No. 200 4.0 0.8 98.4 1.6 Pan 1.0 0.2 Unwashed Weight = 500.0 gm. Washed Weight = 494.0 gm. Fines By Washing = 6.0 gm. Fines By Sieving = 1.0 gm. Total Fines = 7.0 gm. Percent By Dry Weight Of Material Passing The U.S. standard No. 200 Sieve = 1.4 09/11/2003 THU 16:46 FA1 581 589 6469 KSK ENGINEERING IM025 KSM KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESEBASSTING, INC, P,O. BOX 78-1377, SEBASTIAN, FL 32978-1377 MELBOURNE (321) 768-8488 E.B.: 5693 ST. LUCIE (772) 229-9093 GRAIN SIZE ANALYSTS, (ASTM D422) Date Tested: September 9, 2003 Client: The coy Clark Company Project: Ashbury Subdivision Job No.: KSM 34525 Location of Sample: FA-4 (38"-72") Description of Soil: Grayish Broom Sand Sample No.: 3 Tested By: Tony Sieve Weight Percent Cumulative Size Retained Retained % Retained No. 4 .0 .0 .0 No. 10 .0 .0 •0 No. 20 1.0 0.2 0.2 No. 40 174.0 34.8 35.0 No. 100 a12.0 62.4 97.4 No. 200 1.0 0.2 97.6 Pan 1.0 0.2 Unwashed Weight = 500.0 gm. Washed Weight ' = 490.0 gm. Fines By Washing = 10.0 gm. Fines By Sieving - 1.0 gm. Total Fines 11.0 gm. Percent By Dry Weight Of Material Passing The U.S. Standard No. 200 Sieve - 2.2 Percent Passing 100.0 100.0 99.2 65.0 2.6 2.4 09/11/2003 THii 16:46 FAX 561 589 6469 KSM ENGINEERING Z 026 KSM KELLER, SCHLEICHER & MeoWILLIAM ENGINEERING AND TESTING, INC. P.U. BOX 78-1377 SERASTIAN, FL 32978-1377 FAX (772) 589-6469 S!_'BASTIAN (772) 589-0712 S R : 56g3 MELBOURNE (321) 768-5488 5T_ LUCIE (772) 229-9093 GRAIN SIZE ANALYSIS (ASTM D422) Date Tested: September 9, 2003 Client: The Coy Clark Company Project: Ashhury Subdivision Job No.: KSM 34625 Location of Sample: HA-5 (61-40" Description of Soil: Light Gray Sand Sample No.: 4 Tested By: Tony Sieve Weight Percent Cumulative Percent Size Retained Retained Retained Passing No. 4 .0 .0 .0 100.0 No. 10 .0 .0 .0 100.0 No. 20 1.0 0.2 0.2 99.8 No. 40 242.0 48.4 48.6 51.4 No. 100 244.0 48.8 97.4 2.6 No. 200 7.0 1.4 98.8 1.2 Pan -_0 0.2 Unwashed Weight = 500.0 gm. Washed Weight - 495.0 gm. Fines By Washing = 5.0 gm. Finee By Sieving = 1.0 gm. Total Fines - 6.0 gm. Percent By Dry Weight of Material Passing The U.S. Standard No. 200 Sieve = 1,2 •09/11/2003 THCI 18:46 FAX 501 589 6469 KSM E';GINEERING 2027 KSM KELLER, SCHLEICHER & MacWILLIAM ENGINEERING AND TESTING, INC. P.Q, BOX 76-1377, SEBASTIAN, FL 32978-1377 FAX (772) 589-6469 SEBASTIAN (772) 589-0712 E.6.: 5693 MELBOURNE (321) 765-0488 81. LOCIE (772) 229.9093 GRAIN SIZE ANALYSIS (ASTM D422) Date 'Tested: September 9, 2003 Client; The Coy Clark Company Project: Ashbvey Subdivision Job No.: KSM 34625 Location of Sample: HA-7 W -10") Description of Soil: Cray Sand with Roots Sample No.: 5 Tested Sy: Tony Sieve Weight Percent Cumulative Percent Size Retained Retained t Retained Passing No. 4 .0 .0 .0 100.0 No. 10 .0 .0 .0 100.0 No. 20 1.0 0.2 0.2 99.8 No. 40 346.0 69.2 59.4 30.4 No. 100 140.0 28.0 97.4 2.4 No. 2QQ 5.0 110 98.4 1.4 Pan 0.0 0.0 Unwashed Weight = 500.0 gm. Washed Weight - 494.0 gm. Fines By dashing = 6.0 gm. Fines By Sieving = 0.0 gm. Total Fines = 6.0 gm. Percent By Dry Weight of Material Passing The U.S. Standard No. 200 Sieve = 1.2 02/11/2003 THLT 16:47 FAX 561 589 6469 KSH ENGINEERING WJ KSM KELLER, SCHLEICHER & MacWILLIAM ENGINF-ERING AND TESTING, INC. I?a, BOX 78-1377, SEBASTIAN, FL 32978-1377 FAX (772) 589fi469 SCBASTIAN (772) 589-0712 MELBOURNE (321) 768-8456 E.8.: 5693 ST. LUCIE (772) 229-9093 GRAIN SIZE ANALYSIS (ASTM D422) Date Tested: September 9, 2003 Client: The Coy Clark Company Project: Ashbury Subdivision Job No.: KGM 34625 Location of Sample: F..A-10 (0"-10" bescription of Soil: Gray Sand. with Roots Sample No.; 6 Tested By: Tony Sieve Weight Percent Cumulative Percent Size Retained Retained t Retained Passing No. 4 .0 .0 .0 10D.0 No. 10 .0 .0 .0 100.0 No. 20 1.0 0.2 0.2 99.8 No. 40 323.0 64.6 64.8 35.0 No. 100 153.0 32.6 97.4 2.4 No. 200 7.0 1.4 98.8 1.0 Pan 0.0 0.0 Unwashed Weight 500.0 gm. Washed Weight 495.0 gm. Fines By Washing = 5.0 gm. Fines By Sieving 0.0 gm. Total Fines = 5.0 gm. Percent By Lary Weight Of Material Passing The U.S. Standard No. 200 Sieve = 1.0 09/11/2003 THU 16:47 FAX 561 589 6469 KSM ENGINEERING 10029 I I may+- llr rl.a own I '-- •� T ,4Z- C. SAa4f� _�I. y _ i- -Y- �. II( Fp*i-t Road i, 1�-_=.a_:=-_c__=..3..� f�a11Y17i#►EW �.. f 7h�.r1Rii19Mi I I NO rtduam •..3�1f II _ . Nortiq SL h it _ _L-ft -IL �_�* 1� _ •_..� 1 I ' I 1 yy � •'. , .1 .P van Mom { %•r I f�i��(WIJ 1 `1 ' r ri�i-i-r u• ,. -N tt :,or., a •s f d . r I�� �_s_�;._asaisresxseae- r;��:�ti" tj- T "—, ^ -�••-' Wlr•e10 f~ so, R!a ! Mii li1C 11 , I , tT'L ,A h !.I'.a '•ry.'-7 I 1 ' � r T� 7 _Y_"' �,.'.`�` �'-•+-,r -ram.. �'+:^ i i � LL I J +ram' -1 I _ �� +' ^ "i►'. 1 I I 1 [ a 1 1` I � ~x i t - ' W u u, i YoAI '% .9, 1, I r n 4. -4 m'hq 7 1 _ ..�� . ._„1. i .+-� . r ,•.J�- .. 4.,.�.. 6 ...�.� . , f 1 , �'.Vi �..� ' + —•+� ■Io"iml.' 9imm !0' Rr E J I . � I 1 EEcpp7rX }' "�' 1 : -�y • rv,� - �h•}•.i i.�' i'• - + • 1__�a.r . I% , ' uR ` 1 -y' n afr.w rtws,. •,•� T■P'i'_ 11 I 4yl� [ , i Fr 4T _ Tj . r� ' a1L 1i Iry ii 1�' �'� � ,11` �ltcEtlaaa4l_„ Itn •- ': • • r !a ! q ai n �'w_.: _ . ,...� I''� `�■xas" J� �''�"r', ',,,'� , .yi,�.'.;�'s�Y f� � � ,�,I''• �.,�rs,�� "���a��r_ . 'r I � � �.:,•i �.-==�= cat • _ _'�` 4 - .' y jj �.�+ ' ` "3".-�� r ! �,' " �""" �• '.`T" ^!_--r. !'_"� S "` �� 1 onq+t,e a^I�e.a 30' 1'.• �I • �' - M1 l/r7 �~l� I.. PiL PfCWK 9 . _ _ -+-� .r.. ` � -� �� •, rww.1 �.+�'� ��� _ ..-.. ,.� ,\ � 4V 11 �.- Cdlanla,eM 6k+eef SW IYY7 . �IL 1 .a � '�rri�+5'� 'i*><7.aY .•�"' , .� �IMa>�vi s'�r,ia'.•,�. J r LOCZAT.IaN .CIF f'CAC. TF57; 1 LOCATION OF 1 AM> AU6,1n (¢�. k�l .LoI'ING _.:....i Appendix C Flood Routing: Mean Annual, 10, 25 and 100 year - 24 hour Rainfall Events iColumbus Street 1-4 uir m ar push ••.e u I wA. ` I `m _.._.._.._......._.'m•.. _w.._.._.._.._.� J...�T r __ __ .._.._.._.._.._.._.._.._._ _..._.._.._.._..— — — — — — — ---------.._..--------._.._.- _v._.._.._.._.._.._.._.._.._.. _ .. .. CrE c In 1 � 25 1 � 26 ; [-� �l1 28 � l 129 ! 1 30 1 31 � 1 = I, 33 I ��4 I 35 I 36 I r 137 l 38 I .�. --t-EH i i ,/\\ .�:` ��� l—•1 I_ J - [�_ i .-j' l__1 Lr�—�� �_1J 1 '_+ tom`+ l- • 1 r 0 II r=1 �14J `/ �' �+% /1���`�;.::. r 1I u.r —...-.- II I'^-r- lI1l ._-.�1I�•-� [� --_"7"8a�_� I`I � "u"4;•—�--�IIl '�— 'lI ._` II v" • 1Ij14a'13 l .1.. 137�7! IT��-•'7' �•�—a---�l -------- j -;l176 I------� �y —� I �—� � • • ' • • � i I c r,. { -- ,—__ � 1 _ _ III u2 `•.•. •' . �. , m-� ias ,4_7� I 13 1-332 171 11 ""• w7r \ `••.���—�,e=1�� l�t.t.48 'I --__—f �rA=— i a •j• l; II I`------ j . . • x —I ' mid 11 II — --• `1-��,, :_}��30 I ,• • rn % I i------ ,, �_—_—' I I'_-----� ly� . .w��r. •�, 168 t 150-44 1 —r' �� • • x I o II I u8 1 I ::t I ``, � ' a' a' a' }1' � - 1 }.. I �2 � `a x' x' a x rm+ • x • • I i �mm f--- • J I I • _� I >Ru1 y ` \ \ ' • ' (`l . x • •. x ---- I i ,mou1°oii .cn.onmet \,ti,)) • �—� = _ - t, I i — I1I '' r x • • + / ` I § 1 I • I i f[70 w �Jl 752 tv I 128 11IL �-1,\,�.:� r.---' ' iBs-= �� i,!"~" L a • a • ; \� �19�'� 1z7 57if 4? rf 16I ,• 17 ,�_l � I • . • . ' . �55 i •:�_7 T __-�-- �==_J �'�"_= I I 166 �___ ? _' •+a J i t'i�; 6 -, 12:—,!r— !yj S� 0 51 52 [ 53 54 \ 123 \ � ^ .� Mq I i J 1 ss ! 1,•94 /.'' %%\=•--fix'' \�-- I' jj 'd 1 h—�— � ; 6� >' _ - ice, 158 7 / \ 7�,�T60 [-'.•r —__} 1 r j ' ----� r--I r- I + wayI x''72QlI'rf`— \\, ' // eQeoywauRl fur 1 I } 5�, 1116 7I u8a''`1 ` �'�'1 '^'I r! (wt 9� I 111� I ��1_7 I; �11 I 11� I • I , I [—_-�.. 62 i I 92 ,� r---- ----� (-�—� l I -- --, ,--1 �II i osj ��---� � --- 9l dl� 101lI�1C l f03 10 II 10 I I g3 9 10 I 3 1�1i 95 11 96i1 97 .I •-�1 • , •, [ � ,II 70711, 108,1� 1 71 L11 111 112111 M7� 994 1 114 �� I%r , j_. :� 1w. I� i l.... �rr r.; 1=uor 1'L----J' J'L— 1't— J't--- Is j,.7.4 1, - .1117.11 1�1�; 7.1, � , 82 ll . —•-7i8L"83m��--Jt__J - �11�.1L-i+ 1;'1��' r66�'�•.w•;• ,Mp..gy..r p, I�a; l 1 1 NOD'e1714'E 197q.03' __— _ r : 1IIIIT � e � i I o S� i F � Z� i � � i � 9• 8 � A 8 r �1 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [1] Copyright 1995, Streamline Technologies, Inc. ASHBURY S/D .,.�.................. rnp�R.p.,t ------ Class: Node ------------------------------------------------------------- Name: BUBLEUP2 Base Flow(cfs): 0 Init Stage(ft): 17.5 Group: BASE Length(ft): 0 Warn Stage(ft): 23 Comment: Stage( -Ft) Area(ac) 17.5 0.0001 23 0.0001 --------Class: Node ------------------------------------------------ Name: OFFSITE Base Flow(cfs): 0 Init Stage(ft): 18.5 Group: BASE Length(ft): 0 Warn Stage(ft): 23 Comment: Time(hrs) Stage(ft) 0 18.5 10 20 12 20.5 14 21 1B 20.5 24 20 36 19 72 18.5 --------Class: Node ------------------------------------------------ Name: POND-1 Base Flow(cfs): 0 Init Stage(ft): 20.5 Group: BASE Length(ft): 0 Warn Stage(ft): 23.5 Comment: Stage(ft) Area(ac) 20.5 1.853 23.5 2.275 24 2.832 --------Class: Node ------------------------------------------------ Name: POND-2 Base Flow(cfs): 0 Init Stage(ft): 20.5 Group: BASE Length(ft): 0 Warn Stage(ft): 23.5 Comment: Stage(ft) Area(ac) 20.5 0.213 23.5 0.334 24 0.515 --------Class; Node ------------------------------------------------ Name: POND-3 Base Flow(cfs): 0 Init Stage(ft): 20.5 Group: BASE Length(ft): 0 Warn Stage(ft): 23.5 Comment: Stage(ft) Area(ac) 20.5 2.635 23.5 3.245 24 4.036 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [2] Copyright 1995, Streamline Technologies, Inc. ASHBURY S/D H::a.-**:.' Input Report --------Class: Node ----------------------------------------- ------------------- Name: POND-4 Base Flow(cfs): 0 Init Stage(ft): 20.5 Group: BASE Length(ft): 0 Warn Stage(ft): 23.5 Comment: Stage(ft) Area(ac) 20.5 0.72 23.5 0.926 24 1.211 --------Class: Node ----------------------- ------------------------ Name: POND-5 Base Flow(cfs): 0 Init Stage(ft): 20.5 Group: BASE Length(ft): 0 Warn Stage(ft): 23.5 Comment: Stage(ft) Area(ac) 20.5 0.19 23.5 0.344 24 0.598 -------Class: Node ---------------------------------- ------------- Name: ROADWAY Base Flow(cfs): 0 Init Stage(ft): 23.5 Group: BASE Length(ft): 0 Warn Stage(ft): 24 Comment: ROADWAY STORAGE Stage(ft) Area(ac) 16.5 0.0001 23.5 0.01 24 0.932 --------Class: Node ------------------------------------------------ Name: WL-2 Base Flow(cfs): 0 Init Stage(ft): 21 Group: BASE Length(ft): 0 Warn Stage(ft): 21.7 Comment: Stage(ft) Area(ac) 21 0,572 21.7 1.899 --------Class: Basin ---------- Basin: POST -NTH Node: POND-3 Group: BASE Unit Hydrograph: UH484 Rainfall File: FLMOD Rainfall Amount(in): 999 Area(ac): 2B.46 Curve #: 87.B DCIA(%): 0 ------------------------------------- Status: On Site Type: SCS Unit Hydr Peak Factor: 484 Storm Duration(hrs): 999 Concentration Time(min): 29.4 Lag Time(hrs): 0 NORTH HALF OF SITE (SAME CN AND Tc) Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [3] Copyright 1995, Streamline Technologies, Inc. ASHBURY S/D Input Report --------Class: Basin ------------------------------------------------------------ Basin: POST-STH Node: POND-1 Status: On Site Type: SCS Unit Hydr Group: BASE Unit Hydrograph: UH484 Peak Factor: 484 Rainfall File: FLMOD Storm Duration(hrs): 999 Rainfall Amount(in): 999 Area(ac): 28.46 Concentration Time(min): 29.4 Curve #: 87.6 Lag Time(hrs): 0 DCIA(%): 0 SOUTH HALF OF SITE (SAME CN AND Tc) --------Class: Basin ----------------------- ----------------------------------- Basin: PRE Node: N/A Status: On Site Type: SCS Unit Hydr Group: BASE Unit Hydrograph: UH256 Peak Factor: 256 Rainfall File: FLMCD Storm Duration(hrs): 999 Rainfall Amount(in): 999 Area(ac): 56.92 Concentration Time(min): 245 Curve #: 70 Lag Time(hrs): 0 DCIA(%): 0 --------Class: Pipe ------ Name: 1-2 Group: BASE UPSTREAM Geometry: Circular Span(in): 36 Rise(in): 36 Invert(ft): 15.5 Manning's N: 0.012 Top Clip(in): 0 Bottom Clip(in): 0 From Node: POND-1 Length(ft): 175 To Node: POND-2 Count: 1 DOWNSTREAM Equation: Average K Circular Flow: Both 36 Entrance Loss Coef: 0 36 Exit Loss Coef: 0 15.5 Bend Loss Coef: 0 0.012 Outlet Cntrl Spec: Use do or tw 0 Inlet Cntrl Spec: Use do 0 Stabilizer Option: None Upstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 Downstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [4] Copyright 1995, Streamline Technologies, Inc. ASHBURY SJD Input Report ;x;:e "*:xa **-,.,cl * ::t::*::.Yi: *Itl:*: ,,, i** nn :: *Y **.-:a: ,,,%* XY,::kT*** n.,.Y;=>X:x>,,.* : ,;,-. ,,! --------Class: Pipe ------------------------------------------------------------- Name: 2-3 From Node: POND-2 Length(ft): 320 Group: BASE To Node: POND-3 Count: 1 UPSTREAM DOWNSTREAM Equation: Average K Geometry: Circular Circular Flow: Both Span(in): 36 36 Entrance Loss Coef: 0 Rise(in): 36 36 Exit Loss Coef: 0 Invert(ft): 15.5 15.5 Bend Loss Coef: 0 Manning's N: 0.012 O.C12 Outlet Cntrl Spec: Use do or tw Top Ciip(in): 0 0 Inlet Cntrl Spec: Use do Bottom Clip(in): 0 0 Stabilizer Option: None Upstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 Downstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 -Class: Pipe Name: 3-4 Group: BASE UPSTREAM Geometry: Circular Span(in): 30 Rise(in): 30 Invert(ft): 16 Manning's N: 0.012 Top Clip(in): 0 Bottom Clip(in): 0 From Node: POND-3 Length(ft): 330 To Node: POND-4 Count: 1 DOWNSTREAM Equation: Average K Circular Flow: Both 30 Entrance Loss Coef: 0 30 Exit Loss Coef: 0 16 Bend Loss Coef: 0 0.012 Outlet Cntrl Spec: Use do or tw 0 Inlet Cntrl Spec: Use do 0 Stabilizer Option: None Upstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 Downstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [51 Copyright 1995, Streamline Technologies, Inc. ASHBURY S/D Input Report --------Class: Pioe ------------------------------------------------------------- Name: 5-1 Group: BASE UPSTREAM Geometry: Circular Span(in): 24 Rise(in): 24 Invert(ft): 16.5 Manning's N: 0.012 Top Clip(in): 0 Bottom Clip(in): 0 From Node: POND-5 Length(ft): 62D To Node: POND-1 Count: 1 DOWNSTREAM Equation: Average K Circular Flow: Both 24 Entrance Loss Coef: 0 24 Exit Loss Coef: 0 16.5 Bend Loss Coef: 0 0.012 Outlet Cntrl Spec: Use do or tw 0 Inlet Cntrl Spec: Use do 0 Stabilizer Option: None Upstream FHWA Inlet Edge Description: Circular CMP: Projecting Downstream FHWi, Inlet Edge Description: Circular CMP: Projecting --------Class: Pipe------ Name: P1-ROAD Group: BASE UPSTREAM Geometry: Circular Span(in): 12 Rise(in): 12 Invert(ft): 16.5 Manning's N: 0.012 Top Clip(in): 0 Bottom Clip(in): 0 2 3 2 3 From Node: POND-1 Length(ft): 155 To Node: ROADWAY Count: 2 DOWNSTREAM Equation: Average K Circular Flow- Both 12 Entrance Loss Coef: 0 12 Exit Loss Coef: 0 16.5 Bend Loss Coef: 0 0.012 Outlet Cntrl Spec: Use do or tw 0 Inlet Cntrl Spec: Use do 0 Stabilizer Option: None Upstream FHWA Inlet Edge Description: Circular Concrete: Square edge w/ headwall Downstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [61 Copyright 7995, Streamline Technologies, Inc. ASHBURY S/D :::�:.'c,c:i[rc::: Input Report -------Class: Weir ------------------------------------------------------------- Name: BBL2-WL2 From Node: BUBLEUP2 Group: BASE To Node: WL-2 Count: 1 Type: Horiz Flow: Both Geometry: Rectangular Span(in): 24 Rise(in): 37 Invert(ft): 21.3 Control Elev(ft). 21.3 TABLE Bottom Clip(in): 0 Too Clip(in): 0 Weir Discharge Coef: 3.13 Orifice Discharge Coef: 0.67 --------Class: Drop Structure ------------------------------------ Name: DS-1 From Node: POND-1 Length(ft): 325 Group: BASE To Node: OFFSITE Count: 1 Outlet Cntrl Spec: Use do or tw Inlet Cntrl Spec: Use do Upstream Geometry: Circular Downstream Geometry: Circular UPSTREAM DOWNSTREAM Span(in): 30 30 Rise(in): 30 30 Invert(ft): 20 19.5 Manning's N: 0.012 0_012 Top Clip(in): 0 0 Bottom Clip(in): 0 0 Entrance Loss Coef: 0 Flow: Both Exit Loss Coef: 0 Equation: Aver Conveyance Upstream FHWA Inlet Edge Description: Circular Concrete: Square edge w/ headwall 1 1 Downstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [7] Copyright 1995, Streamline Technologies, Inc. ASHBURY S/D Input Report Weir 1 of 3 for Drop Structure DS-1 * [TABLE] Count: 1 Bottom Clip(in): 0 Type: Mavis Top Clip(in): 0 Flow: Both Weir Discharge Coef: 3.13 Geometry: Rectangular Orifice Discharge Coef: 0.67 Span(in): 9 Invert(ft): 20.5 Rise(in): 3 Control Elev(ft): 20.5 Weir 2 of 3 for Drop Structure DS-1 *ax. [TABLE] Count: 2 Bottom Clip(in) 0 Type: Mavis Top Clip(in): 0 Flow: Both Weir Discharge Coef: 3.13 Geometry: Rectangular Orifice Discharge Coef: 0.67 Span(in): 19 Invert(ft): 21.5 Rise(in): 999 Control Elev(ft): 21.5 Weir 3 of 3 for Drop Structure DS-1 *'I%' [TABLE] Count: 1 Bottom Clip(in): 0 Type: Horiz Top Clip(in): 0 Flow: Both Weir Discharge Coef: 3.13 Geometry: Rectangular Orifice Discharge Coef: 0.67 Span(in): 37 Invert(ft): 23.8 Rise(in): 49 Control Elev(ft): 23.8 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [8] Copyright 1,995, Streamline Technologies, Inc. ASHBURY S/D Input Report --------Class: Drop Structure --------------------------------------------------- Name: P4-BBL2 From Node: POND-4 Length(ft): 60 Group: BASE To Node: BUBLEUP2 Count: 1 Outlet Cntrl Spec: Use do or tw Inlet Cntrl Spec: Use do Upstream Geometry: Circular Downstream Geometry: Circular UPSTREAM DOWNSTREAM Span(in): 12 12 Rise(in): 12 12 Invert(ft): 18 17.5 Manning's N. 0.012 0.012 Top Clip(in): 0 0 Bottom Clip(in): 0 0 Entrance Loss Coef: 0 Flow: Both Exit Loss Coef: 0 Equation: Aver Conveyance Upstream FHWA Inlet Edge Description: Circular Concrete: Square edge w/ headwall 1 1 Downstream FHWA Inlet Edge Description: Circular CMP: Mitered to slope 2 2 Weir 1 of 2 for Drop Structure P4-BBL2 *** [TABLE] Count: 1 Bottom Clip(in): 0 Type: Mavis Top Clip(in): 0 Flow: Both Weir Discharge Coef: 3.13 Geometry: Rectangular Orifice Discharge Coef: 0.67 Span(in): 3 Invert(ft): 22.25 Rise(in): 999 Control Elev(ft): 22.25 Weir 2 of 2 for Drop Structure P4-BBL2 *** [TABLE] Count: 1 Bottom Clip(in): 0 Type: Horiz Top Clip(in): 0 Flow: Both Weir Discharge Coef: 3.13 Geometry: Rectangular Orifice Discharge Coef: 0.67 Span(in): 24 Invert(ft): 24 Rise(in): 37 Control Elev(ft): 24 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [9] Copyright 1995, Streamline Technologies, Inc. ASHBURY S/D * % Input Report --------Class: Simulation------------------------------------------------------- C:\OPROJECT\OOJOBF-1\SCHULKE\03-022-1\ICP Execution: Both Header: $$DATE$$ --------- HYDRAULICS ----------------------------- HYDROLOGY ----------- Max Delta Z (ft): 0.1 Delta Z Factor: 0.02 Override Defaults: Yes Time Step Optimizer: 0 Storm Dur(hrs): 24 Drop Structure Optimizer: 0 Rain Amount(in): 4.8 Sim Start Time(hrs): 0 Rainfall File; FLMOD Sim End Time(hrs): 72 Min Calc Time(sec): 3 Max Calc Time(sec): 30 To Hour: PInc(min): To Hour: Plnc(min): 10 30 28 15 14 15 30 30 72 60 ---------GROUP SELECTIONS ------------------------------------------- + BASE [08/18/03] --------Class: Simulation--------------------------------------- C:\OPROJECT\OOJOBF-1\SCHULKE\03-C22-1\iCP Execution: Both Header: $$DATE$$ --------- HYDRAULICS ---------------- Max Delta Z (ft): 0.1 Delta Z Factor: 0.02 Time Step Optimizer: 0 Drop Structure Optimizer: 0 Sim Start Time(hrs): 0 Sim End Time(hrs): 72 Min Calc Time(sec): 3 Max Calc Time(sec): 30 To Hour: PInc(min): 10 30 14 15 30 30 72 60 ---------GROUP SELECTIONS---------- + BASE [08/18/03] --------HYDROLOGY- Override Defaults: Yes Storm Dur(hrs): 24 Rain Amount(in): 10.56 Rainfall File: FLMOD To Hour: PInc(min): 24 15 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [10] Copyright 1995, Streamline Technologies, Inc. ASHBURY S/D Y,:✓,4': •,�•••••a••• •y :ki1- Xt Xe %;caYXi Xt%.=Xt� mXt;k�k::e Xt:k=k r'itm%kak:X%ki�t�kn;;.w..YF-Y:Xc.fX=:'F+X<>k+-X:XY,o:UX�k %::SkY,i:l: • • • • • •>• Input Report --------Class: Simulation------------------------------------------------------- C:\OPROJECT\OOJ08F-1\SCHULKE\03-022-1\ICP Execution: Both Header: $$DATE$$ --------- HYDRAULICS ----------------------------- HYDROLOGY ----------- Max Delta Z (ft): 0.1 Delta Z Factor: 0.02 Override Defaults: Yes Time Step Optimizer: 0 Storm Dur(hrs): 24 Drop Structure Optimizer: 0 Rain Amount(in): 7.44 Sim Start Time(hrs): 0 Rainfall File: FLMOD Sim End Time(hrs): 72 Min Calc Time(sec): 3 Max Calc Time(sec): 30 To Hour: Plnc(min): To Hour: PInc(min): 10 30 24 15 14 15 30 30 72 60 ---------GROUP SELECTIONS ------------------------------------------- + BASE [08/18/03] --------Class: Simulation --------------------------------------- C:\OPROJECT\ODJOBF-1\SCHULKE\03-022•-1\ICP Execution: Both Header: $$DATE$$ --------- HYDRAULICS ----------------------------- HYDROLOGY ----------- Max Delta Z (ft): 0.1 Delta Z Factor: 0.02 Override Defaults: Yes Time Step Optimizer: 0 Storm Dur(hrs): 24 Drop Structure Optimizer: 0 Rain Amount(in): 9.3 Sim Start Time(hrs): 0 Rainfall File. FLMOD Sim End Time(hrs): 72 Min Calc Time(sec): 3 Max Calc Time(sec): 3C To Hour: PInc(min): To Hour: PInc(min): 10 30 24 15 14 15 30 30 72 60 ---------GROUP SELECTIONS ------------------------------------------- + BASE [09/18/03] Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [111 Copyright 1995, Streamline Technologies, Inc. ASHBURY S/D x::. , .......,.,,... Input Report V,-.k*a-* *,,,t g***F l***r;*X:: *,,%' a::xm..::x>: ,$:.%*** ;:k:x,:. *** --------Class: Simulation ------------------------------------------------------- C: \OPROJECT\00JOBF-1 \SCHULKE\03-022-1 \ICP Execution: Both Header: $$DATE$$ --------- HYDRAULICS ----------------------------- HYDROLOGY -------------------- Max Delta Z (ft): 0.1 Delta Z Factor: 0.02 Override Defaults: Yes Time Step Optimizer: 0 Storm Dur(hrs): 24 Droo Structure Optimizer: 0 Rain Amount(in): 8.64 Sim Start Time(hrs), D Rainfall File: FLMOD Sim End Time(hrs): 72 Min Calc Time(sec): 3 Max Calc Time(sec): 30 To Hour: PInc(min): To Hour: PInc(min): 10 30 24 15 14 15 30 30 72 60 --------GROUP SELECTIONS ---------------------------------------------------- + BASE [08/18/03] Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [1] Copyright 1995. Streamline Technologies, Inc. 08/17/03 Basin Summar MEAN -------------------------------------- Basin Name: PRE POST -NTH POST-STH Group Name: BASE BASE BASE Node Name: N/A POND-3 POND-1 Hydrograph Type: UH UH UH Unit Hydrograph: UH256 UH484 UH484 Peaking Factor: 256.00 484.00 484.00 Spec Time Inc (min): 32.66 3.92 3.92 Comp Time Inc (min): 15.00 3.92 3.92 Rainfall File: FLMOD FLMOD FLMOD Rainfall Amount (in): 4.80 4.80 4.80 Storm Duration (hr): 24.00 24.00 24.00 Status: ONSITE ONSITE ONSITE Time of Conc. (min): 245.00 29.40 29.40 Lag Time (hr): 0.00 0.00 0.00 Area (acres): 56.92 28.46 28.46 Vol of Unit Hyd (in): 1.00 1.00 1.00 Curve Number: 70.00 87.60 87.80 DCIA (%): 0.00 0.00 0.00 Time Max (hrs): 15.25 12.22 12.22 Flow Max (cfs): 9.71 63.12 63.12 Runoff Volume (in): 1.89 3.45 3.45 Runoff Volume (cf): 390186 356784 356784 pe-E&IQ( Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) Ell Copyright 1995, Streamline Technologies, Inc. 08/17/03 Basin Summar ----------------------------------------- Basin Name: PRE POST -NTH PCST-STH Group Name: BASE BASE BASE Node Name: N/A POND-3 POND-1 Hydrograph Type: UH UH UH Unit Hydrograph: UH256 UH484 UH484 Peaking Factor: 256.00 484.00 484.00 Spec Time Inc (min): 32.66 3.92 3.92 Comp Time Inc (min): 15.00 3.92 3.92 Rainfall File: FLMOD FLMOD FLMOD Rainfall Amount (in): 9.30 9.30 9.30 Storm Duration (hr): 24.00 24.00 24.00 Status: ONSITE ONSITE ONSITE Time of Conc. (min): 245.00 29.40 29.40 Lag Time (hr): 0.00 0.00 0.00 Area (acres): 56.92 28.46 28.46 Vol of Unit Hyd (in): 1.00 1.00 1.00 Curve Number: 70.00 87.80 87.80 DCIA (%): 0.00 0.00 0.00 Time Max (hrs): 15.00 12.15 12.15 Flow Max (cfs): oovb 30.51 137.60 137.60 Runoff Volume (in): 5.60 7.81 7.81 Runoff Volume (cf): 1156573 806386 806386 r Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [1] Copyright 1995, Streamline Technologies, Inc. 08/17/03 Basin Summar - 10 224 =<xwMxmSFacKo:c cY,cR=k : m%;cY,o$S:<=F 1F xx:„ rm xa Basin Name: PRE POST -NTH POST-STH Group Name: BASE BASE BASE Node Name: N/A POND-3 POND-1 Hydrograph Type- UH UH UH Unit Hydrograph: UH256 UH484 UH484 Peaking Factor: 256.00 484.00 484.00 Spec Time Inc (min): 32.66 3.92 3.92 Comp Time Inc (min): 15.00 3.92 3.92 Rainfall File: FLMOD FLMOD FLMOD Rainfall Amount (in): 7.44 7.44 7.44 Storm Duration (hr): 24.00 24.00 24.00 Status: ONSITE ONSITE ONSITE Time of Conc. (min): 245.00 29.40 29.40 Lag Time (hr): 0.00 0.00 0.00 Area (acres): 56.92 28.46 28.46 Vol of Unit Hyd (in): 1.00 1.00 1.00 Curve Number: 70.00 87.80 87.80 DCIA (%): 0.00 0.00 0.00 Time Max (hrs): 15,00 12.15 12.15 Flow Max (cfs): 21.43 r 106.89 106.89 Runoff Volume (in): 3.99 5.99 5.99 Runoff Volume (cf): 823437 618692 618692 A POW.* Qr Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [1] Copyright 1995, Streamline Technologies, Inc. 08/18/03 . ' Basin Summary - COS25-24 --------------------- Basin Name: Group Name: Node Name: Hydrograph Type: Unit Hydrograph: Peaking Factor: Spec Time Inc (min): Comp Time Inc (min): Rainfall File: Rainfall Amount (in). Storm Duration (hr): Status: Time of Conc. (min): Lag Time (hr): Area (acres): Vol of Unit Hyd (in): Curve Number: DCIA M : PRE POST -NTH POST-STH BASE BASE BASE N/A POND-3 POND-1 UH UH UH UH256 256.00 32.66 15.00 FLMOD 9.64 24.00 ONSITE 245.00 C. 00 56.92 1.00 70.00 0.00 UH484 484.00 3.92 3.92 FLMOD 8.64 24.00 ONSITE 29.40 0.00 28.46 1.00 87.80 0.00 Time Max (hrs): 15.00 12.15 Flow Max (cfs): 27.24 126.73 Runoff Volume (in): 5.02 7.16 Runoff Volume (cf): 1036564 739603 fK, Qr UH484 484.00 3.92 3.92 FLMOD 8.64 24.00 ONSITE 29.40 0.00 28.46 1.00 87.80 0.00 12.15 126.73 7.16 739603 ' Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [1] Copyright 1995, Streamline Technologies, Inc. 08/18/03 ^'x Link Maximum Condit! (Time units - hours) Link Group Max Time Max Flow Max Delta Q Max Time FMax Stage Max Time Max DS Stage Name Name Flow (cfs) (cfs) U/S Stage(ft) D/S Stage (ft) ---------------------------------------- 1-2 BASE 12.31 11.04 0.63 15.05 22.31 15.16 22.32 2-3 BASE 12.48 6.67 0.30 15.16 Ooo,22.32 15.25 22.33 3-4 BASE 12.43 11.37 0.38 15.25 22.33 15.24 22.33 5-1 BASE 24.76 0.20 -0.16 15.02 22.31 15.05 22.31 BBL2-WL2 BASE 0.00 0.00 0.00 18.83 19.26 0.00 21.00 DS-1 BASE 15.10 8.21 0.01 15.05 22.31 14.00 21.00 P1-ROAD BASE 13.81 0.20 -9.64 15.05 22.31 0.00 23.50 P4-BBL2 BASE 15.24 0.02 0.00 15.24 22.33 18.83 19.26 POS'f Q f � Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [1] Copyright 1995, Streamline Technologies, Inc. 08/18/03 Link Maximum Conditions/'SJR25-24 (Time units - hours) Link Group Max Time Max Flow Max Delta Q Max Time Max US Stage Max Time Max DS Stage Name ,Name Flow (cfs) (cfs) U/S Stage (ft) D/S Stage (ft) ---------------------------------------------------------------------------------------------------------- 1-2 BASE 12.27 16.21 0.63 12.96 aw 23.97 13.11 23.99 2-3 BASE 12.42 5.42 0.30 13.11 23.99 13.38 24.04 3-4 BASE 12.48 19.62 -0.11 13.38 r 24.04 14.20 24.02 5-1 BASE 14.07 0.67 0.17 13.43 23.92 12.96 23.97 BBL2-WL2 BASE 14.20 1.96 0.23 27.68 21.82 71.96 21.82 DS-1 BASE 12.96 29.65 0.04 12.96 23.97 14.00 21.00 Pl-ROAD BASE 12.67 2.37 -9.64 12.96 23.97 13.51 23.91 P4-BBL2 BASE 14.20 1.96 0.00 14.20 24.02 27.68 21.82 �sY Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) Copyright 1995, Streamline Technologies, Inc. 08/18/03 Link Maximum Conditions (Time units - hours) Link Group Max Time Max Flow Name Name Flow (cfs) ---------------------------------------- 1-2 BASE 12.27 14.65 2-3 BASE 12.44 6.40 3-4 BASE 12.47 16.61 5-1 BASE 24.10 0.45 BBL2-WL2 BASE 14.07 0.93 DS-1 BASE 13.28 �-021.12 P1-ROAD BASE 12.25 0.29 P4-BBL2 BASE 14.07 0.93 __... • -• • .-.._.. ............................. .... ............... ..,....�,,......... Max Delta Q Max Time FMa-xUS Stage Max Time Max DS Stage (cfs) ------------------------- U/S Stage(ft) D/S Stage (ft) 0.63 13.19 23.30 13.40 23.32 0.30 13.40 r 23.32 14.01 23.37 0.09 14.01 r 23.37 14.07 23.37 -0.16 13.26 .. 23.30 13.19 23.30 -0.14 25.70 21.46 26.50 21.46 0.03 13.19 23.30 14.00 21.00 -9.64 13.19 23.30 0.00 23.50 0.00 14.07 23.37 25.70 21.46 Few Of Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [1] Copyright 1995, Streamline Technologies, Inc. 08/18/03 Link Maximum Conditions (Time units - hours) Group Max Time Max Flow Max Delta Q Max Time /Max US Stage Max Time Max DS Stage Name Name (cfs)- U/S Stage`\]R (ft) D/S Stage (ft) - -Link ----------- 1-2 BASE ----Flow 12.27 -- 15.69 -------(cfs)- 0.63 ------------ 13.02 .P 23.75 ------------------------- 13.20 23.78 2-3 BASE 12.46 5.87 0.30 13.20 23.78 13.95 23.83 3-4 BASE 12.49 18.62 -0.09 13.95 23.83 14.15 23.82 5-1 BASE 24.12 0.56 -0.16 13.36 r 23.74 13.02 23.75 BBt2-WL2 BASE 14.23 1.56 0.22 27.12 21.70 71.83 21.69 DS-1 BASE 13.04 n.+9 26.10 0.04 13.02 23.75 14.00 21.00 PI -ROAD BASE 12.70 1.32 -9.64 13.02 23.75 13.22 23.75 P4-BBL2 BASE 14.15 1.54 0.00 14.15 23.82 27.12 21.70 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) Copyright 1995, Streamline Technologies, Inc. 08/18/03 Node Time Series by Nod Time Stage (hrs) (ft) x x Grou p 0.000 0,500 1.002 1.501 2.001 2.501 3.001 3.500 4.002 4.501 5.001 5.501 6.000 6.502 7.001 7.501 8.001 8.500 9.002 9.500 10.000 10.500 10.750 11.001 11.251 11.500 11.751 12.000 12.250 12.500 12.750 13.000 13.251 13.501 13.755 14.006 14.251 14.753 15.256 15.754 16.252 16.751 17.250 17.751 18.251 18.751 CO BASE 21.00 21.00 21.00 21.00 21.00 21.00 21,00 21.00 21.00 21.00 21.00 21.00 21.00 21.00 21.00 21.00 21.00 21.00 21.0 21.00 21.0 21.0 21.0 21.0 21.0 21.0 21: 21.0 21.0 21.0 21.0 21.0 21.0 21.1 21.1 21.2 21.2 21.3 21.3 21.4 21.4 21.5 21.5 21.5 21.6 21.65 [11 0 0 0 0 0 0 0 I-------------- -- Inflow ---------------- >I Link Cumulative Cumulative Surface Base Q Onsite Offsite Bndry Q Link Q Outflow Volume In Volume Out Ar.(ac) (cfs) (cfs) (cfs) (cfs) (cfs) (cfs) (ac.ft) (ac.ft). ---------------------------------------------------------------------- Node: WL-DJO U.;, 0.00 0.00 0.00 0.00 0.00 0.0000 0.000o 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0,0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0,0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.0c 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 0.57 0.00 0.00 0.00 0.00 0.00 0.00 0.0000 0.0000 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) Copyright 1995, Streamline Technologies, Inc. C8/18/03 [21 Node Time Series by Node - SJ R25-24 <------ ---------- In -Flow ---------------- >I Link Cumulative Cumulative Time Stage Surface Base Q Onsite Offsite Bndry Q Link Q Outflow Volume In Volume Out (hrs) (ft) Ar.(ac) (cfs) (cfs) (cfs) (cfs) (cfs) (cfs) (ac.ft) (ac.ft) ---------------------------------------------------------------------------------------------------------- 19.252 21.67 1.84 0.00 0.00 0.00 0.00 1.02 0.00 0,8170 0.0000 19.751 21.69 1.88 0.00 0.00 0.00 0.00 0.90 0.00 0.8567 0.0000 20.250 21.71 1.92 0.00 0.00 0.00 0.00 1.07 0.00 0.8974 0.0000 20.751 21.73 1.95 0.00 0.00 0.00 0.00 0.73 0.00 0.9347 0.0000 21.251 21.74 1.98 0.00 0.00 0.00 0.00 0.65 0.00 0.9634 0.0000 21.750 21.75 2.00 0.00 0.00 0.00 0.00 0.58 0.00 0.9889 0.0000 22.250 21.77 2.02 0.00 0.00 0.00 0.00 0.52 0.00 1.0117 0.0000 22.750 21.78 2.04 0.00 0.00 0.00 0.00 0.46 0.00 1.0319 0.0000 23.250 21.78 2.06 0.00 0.00 0.00 0.00 0.46 0.00 1.0510 Q 23.750 21.79 2.07 0.00 0.00 0.00 0.00 0.36 0.00 1.0679 0.0000 24.250 21.80 2.09 0.00 0.00 0.00 0.00 0.32 0.00 1.0819 0.0000 24.751 21.80 2.10 0.00 0.00 0.00 0.00 0.34 0.00 1.0956 0.0000 25.250 21.81 2.10 0.00 0.00 0.00 0.00 0.22 C.00 1.1071 0.0000 25.750 21.81 2.11 0.00 0.00 0.00 0.00 0.16 0.00 1.1150 0.0000 26.251 21.81 2.11 C.00 0.00 0.00 0.00 0.13 0.00 1.1210 0.0000 26.751 21.81 2.12 0.00 0.00 0.00 0.00 0.11 0.00 1.1259 0.0000 27.251 21.81 2.12 0.00 0.00 0.00 0.00 0.09 0.00 1.1300 0.0000 27.750 21.82 2.12 0.00 0.00 0.00 0.00 0.05 0.00 1.1329 0.0000 28.250 21.82 2.12 0.00 0.00 0.00 0.00 C.14 0.00 1.1369 0.0000 28.750 21.82 2.12 0.00 0.00 0.00 0.00 0.07 0.00 1.1413 0.0000 29.251 21.82 2.12 0.00 0.00 0.00 0.00 0.09 0.00 1.1445 0.0000 29.750 21.82 2.12 0.00 0.00 0.00 0.00 0.11 0.00 1.1485 0.0000 3C.250 21.82 2.12 0.00 0.00 0.00 0.00 0.03 0.00 1.1514 0.0000 31.250 21.82 2.12 0.00 0.00 0.00 0.00 0.04 0.00 1.1542 0.0000 32.250 21.82 2.12 0.00 0.00 0.00 0.00 0.06 0.00 1.1583 0.0000 33.250 21.82 2.12 0.00 0.00 0.00 0.00 0.10 0.00 1.1648 0.0000 34.250 21.82 2.12 0.00 0.00 0.00 0.00 0.07 0.00 1.1716 0.0000 35.250 21.82 2.12 0.00 0.0C 0.00 0.00 0.10 0.00 1.1788 0.0000 36.250 21.82 2.12 0.00 0.00 0.00 0.00 0.17 0.00 1.1901 0.0000 37.251 21.82 2.12 0.00 0.00 0.00 0.00 0.11 0.00 1.2016 0.0000 38.250 21.82 2.12 0.00 0.00 0.00 0.00 0.03 0.00 1.2073 0.0000 39.250 21.82 2.12 0.00 0.00 0.00 0.00 0.05 0.00 1.2105 0.0000 40.250 21.82 2.12 0.00 0.00 0.00 0.00 0.07 0.00 1.2154 0.0000 41.250 21.82 2.12 0.00 0.00 0.00 0.00 0.05 0.00 1.2206 0.0000 42.250 21.B2 2.12 0.00 0.00 0.00 0.00 0.08 0.00 1.2260 0.0000 43.250 21.82 2.12 0.00 0.00 0.00 0.00 0.12 0.00 1.2343 0.0000 44.250 21.82 2.12 0.00 0.00 0.00 0.00 0.22 0.00 1.2482 0.0000 45.251 21.82 2.12 0.00 0.00 0.00 0.00 0.12 0.00 1.2622 0.0000 46.250 21.82 2.12 0.00 0.00 0.00 0.00 0.04 0.00 1.2687 0.0000 47.250 21.82 2.12 0,00 0.00 0.00 C.00 0.06 0.00 1.2725 0.0000 48.250 21.82 2.12 0.00 0.00 0.00 0.00 0.04 0.00 1.2764 0.0000 49.250 21.82 2.12 0.00 0.00 0.00 0.00 C.06 0.00 1.2805 0.0000 50.250 21.82 2.12 0.00 0.00 0.00 0.00 0.09 0.00 1.2867 0.0000 51.250 21.82 2.12 0.00 0.00 0.00 0.00 0.15 0.00 1.2969 0.0000 52.251 21.82 2.12 0.00 0.00 0.00 0.00 0.09 0.00 1.3070 0.0000 53.251 21.82 2.12 0.00 0.00 0.00 0.00 0.14 0.00 1.3166 0.0000 54.250 21.82 2.12 0.00 0.00 0.00 0.00 0.04 0.00 1.3242 0.0000 tA 0 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [31 Copyright 1995, Streamline Technologies, Inc. 08/16/03 Node Time Series by Node - SJR25-24 <---------------- Inflow ---------------- >I Link Cumulative Cumulative Time Stage Surface Base Q Onsite Offsite 8ndry Q Link Q Outflow Volume In Volume Out (hrs) (ft) Ar.(ac) (cfs) (cfs) (cfs) (cfs) (cfs) (cfs) (ac.ft) (ac.ft) -------------------------------------------------------------------------------------------------------- 55.250 21.82 2.12 0.00 0.00 0.00 0.00 0.03 0.00 1.3272 0.0000 56.250 21.82 2.12 0.00 0.00 0.00 0.00 0.05 0.00 1.3303 0.0000 57.250 21.82 2.12 0.00 0.00 0.00 O.CC 0.07 0.00 1.3350 0.0000 58.250 21.82 2.12 0.00 0.00 0.00 0.00 0.11 0.00 1.3425 0.0000 59.251 21.82 2.12 0.00 0.00 0.00 0.00 0.07 0.00 1.3500 0.0000 60.251 21.82 2.12 0.00 0.00 0.00 0.00 0.10 0.00 1.3572 0.0000 61.251 21.82 2.12 0.00 0.00 0.00 0.00 0.17 0.00 1.3684 0.0000 62.250 21.82 2.12 0.00 0.00 0.00 0.00 0.05 0.00 1.3777 0.0000 63.250 21.82 2.12 O.OD 0.00 0.00 0.00 0.03 0.00 1.3814 0.0000 64.250 21.82 2.12 C.00 0.00 0.00 0.00 0.05 0.00 1.3850 0.0000 65.25C 21.82 2.12 0.00 0.00 0.00 0.00 0.08 0.00 1.3906 0.0000 66.251 21.82 2.12 0.00 0.00 0.00 0.00 0.05 0.00 1,3962 0.0000 67.251 21.82 2.12 0.00 0.00 0.00 0.00 0.08 0.00 1.4016 0.0000 68.251 21.82 2.12 0.00 0.00 0.00 0.00 0.12 0.00 1.4099 0.0000 69.251 21.82 2.12 0.00 0.00 0.00 0.00 0.22 0.00 1.4239 0.0000 70.250 21.82 2.12 0.00 0.00 0.00 0.00 0.06 0.00 1.4353 0.0000 71.250 21.82 2.12 0.00 0.00 0.00 0.00 0.04 0.00 1.4395 0.0000 72.000 21.82 2.12 0.00 0.00 0.00 0.00 0.06 0.00 1.4427 0.0000 Appendix D Drawdown Analysis for Wet Pond Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [1] Copyright 1995, Streamline Technologies, Inc. ASHBURY DRAWDWN CALCS I nput Re port --------Class: Node ------------------------------------------------------------- Name: OFFSITE Base Flow(cfs): 0 Init Stage(ft): 18.5 Group: BASE Length(ft): 0 Warn Stage(ft): 18.5 Comment: Time(hrs) Stage(ft) 0 18.5 36 18.5 --------Class: Node ------------------------------------------------ Name: POND-1 Base Flow(cfs): 0 Init Stage(ft): 21.5 Group: BASE Length(ft): 0 Warn Stage(ft): 21.5 Comment: Stage(ft) Area(ac) 20.5 1.853 23,5 2.275 24 2.B32 -------Class: Node ------------------------------------ Name: POND-2 Base Flow(cfs): 0 Init Stage(ft): 21.5 Group: BASE Length(ft): 0 Warn Stage(ft): 21.5 Comment: Stage(ft) Area(ac) 20.5 0.213 23.5 0,334 24 0.515 --------Class: Node---- ------------------------------- Name: POND-3 Base Flow(cfs): 0 Init Stage(ft): 21.5 Group: BASE Length( -Ft): 0 Warn Stage(ft): 21.5 Comment: Stage(ft) Area(ac) 20.5 2.635 23.5 3.245 24 4,036 --------Class: Node ---------------------------------------------- — Name: POND-4 Base Flow(cfs): 0 Init Stage(ft): 21.5 Group; BASE Length(ft): 0 Warn Stage(ft). 21.5 Comment: Stage(ft) Area(ac) 20.5 0.72 23.5 0.926 24 1.211 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [2] Copyright 1995, Streamline Technologies, Inc. ASHBURY DRAWDWN CALCS Input Report --------Class: Node------ ---------------------------------------------- Name: POND-5 Base Flow(cfs) 0 Init Stage(ft): 21.5 Group: BASE Length(ft): 0 Warn Stage(ft): 21.5 Comment: Stage(ft) Area(ac) 20.5 0.19 23.5 0.344 24 0.598 --------Class: Pipe ---------- Name: 1-2 From Node: POND-1 Length(ft): 175 Group: BASE To Node: POND-2 Count: 1 UPSTREAM DOWNSTREAM Equation: Average K Geometry: Circular Circular Flow: Both Span(in): 30 30 Entrance Loss Coef: 0 Rise(in): 30 30 Exit Loss Coef: 0 Invert(ft). 16 16 Bend Loss Coef: 0 Manning's N: 0.012 0.012 Outlet Cntrl Spec: Use do or tw Top Clip(in): 0 0 Inlet Cntrl Spec: Use do Bottom Clip(in): 0 0 Stabilizer Option: None Upstream FHWA Inlet Edge Description: Circular CMP: Projecting Downstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 2 3 r Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [31 Copyright 1995, Streamline Technologies, Inc. ASHBURY DRAWDWN CALCS Input Report -------Class: Pipe ------------------------------------------------------------- Name- 2-3 From Node: POND-2 Length(ft): 320 Group: BASE To Node: POND-3 Count: 1 UPSTREAM DOWNSTREAM Equation: Average K Geometry: Circular Circular Flow: Both Span(in): 30 30 Entrance Loss Coef: 0 Rise(in): 30 30 Exit Loss Coef: 0 Invert(ft): 16 16 Bend Loss Coef: 0 Manning's N. 0.012 0.012 Outlet Cntrl Spec: Use do or tw Top Clip(in): 0 0 Inlet Cntrl Spec: Use do Bottom Clip(in): 0 0 Stabilizer Option: None Upstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 Downstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 --------Class: Pipe ------------------------------------------------------- Name: 3-4 From Node: POND-3 Length(ft): 330 Group: BASE To Node: POND-4 Count: 1 UPSTREAM DOWNSTREAM Equation: Average K Geometry: Circular Circular Flow: Both Span(in): 24 24 Entrance Loss Coef: 0 Rise(:i.n): 24 24 Exit Loss Coef: 0 Invert(ft): 16.5 16.5 Bend Loss Coef: 0 Mannirg's N: 0.012 0.012 Outlet Cntrl Spec: Use do or tw Top Clip(in): 0 0 Inlet Cntrl Spec: Use do Bottom Clip(in): 0 0 Stabilizer Option: None Upstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 Downstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 .y Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [4] Copyright 1995, Streamline Technologies, Inc. ASHBU'RY DRAWDWN CALCS •• •••••• •' -• Input Report --------Class: Pipe ------------------------------------------------------------- Name; 5-1 From Node: POND-5 Length(ft): 620 Group: BASE To Node: POND-1 Count: 1 UPSTREAM DOWNSTREAM Equation: Average K Geometry: Circular Circular Flow: Both Span(in): 24 24 Entrance Loss Coef: 0 Rise(in): 24 24 Exit Loss Coef: 0 Invert(ft): 16.5 16.5 Bend Loss Coef: 0 Manning's N: 0.012 0.012 Outlet Cntrl Spec: Use do or tw Top Clip(in): 0 0 Inlet Cntrl Spec: Use do Bottom Clip(in): 0 0 Stabilizer Option: None Upstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 Downstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 --------Class: Drop Structure ----------- ------------------------------- Name: DS-1 From Node: POND-1 Length(ft): 325 Group: BASE To Node: OFFSITE Count: 1 Outlet Cntrl Spec: Use do or tw Inlet Cntrl Spec: Use do Upstream Geometry: Circular Downstream Geometry: Circular UPSTREAM DOWNSTREAM Span(in): 24 24 Rise(in): 24 24 Invert(ft): 20 19.5 Manning's N: 0.012 0.012 Top Clip(in): 0 0 Bottom Clip(in): 0 0 Entrance Loss Coef: 0 Flow: Both Exit Loss Coef: D Equation: Aver Conveyance Upstream FHWA Inlet Edge Description: Circular Concrete: Square edge w/ headwall 1 1 Downstream FHWA Inlet Edge Description: Circular CMP: Projecting 2 3 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) [5] Copyright 1995, Streamline Technologies, Inc. ASHBURY DRAWDWN CALCS Input Report ='` xXcY raicYWk�Y X=xYF%ox x�xY,Ulock ycY xy =x=xx==;<Y X=Y a YFQ xnox.:YF>k=% x=x:d'F=x%c Weir 1 of 1 for Drop Structure DS-1 a'x"` [TABLE] Count: 1 Bottom Clip(in)-: 0 Type: Mavis Top Clip(in): 0 Flow: Both Weir Discharge Coef: 3.13 Geometry: Rectangular Orifice Discharge Coef: 0.67 Span(in): 9 Rise(in): 3 -- Class: Simulation------- C;\OPROJECT\OOJOBF-1\SCHULKE\03-022-1\DRA Execution: Hydraulics Header: $$DATE$$ --------- HYDRAULICS ----------- Max Delta Z (ft): 0.1 Delta Z Factor: 0.02 Time Step optimizer: 0 Drop Structure Optimizer: 0 Sim Start Time(hrs): 0 Sim End Time(hrs); 36 Min Calc Time(sec): 3 Max Calc Time(sec): 30 To Hour: PInc(min): 36 30 --------GROUP SELECTIONS---- + BASE [08/17/03] Invert(ft): 20.5 Control Elev(ft): 20.5 -HYDROLOGY Override Defaults: No To Hour: PInc(min): Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) D ] Copyright 1995, Streamline Technologies, Inc. OS/17/03 Node Time Series by Node <--------------- Inflow ---------------- >I Link Cumulative Cumulative Time Stage Surface Base Q Onsite Offsite Bndry Q Link Q Outflow Volume In Volume Out (hrs) (ft) Ar.(ac) (cfs) (cfs) (cfs) (cfs) (cfs) (cfs) (ac.ft) (ac.ft) ---------------------------------------------------------------------------------------------------------- ^'c,x Group: BASE Node: OFFSITE 0.000 18.5C 0.00 0.00 0.00 0.00 0.00 0.94 0.00 0.0000 0.000C 0.501 18.50 0.00 0.00 0.00 0.00 0.00 0.94 0.00 0.0389 0.0000 1.001 18.50 0.00 0.00 0.00 0.00 0.00 0.94 0.00 0.0776 0.0000 1.501 18.50 0.00 0.00 0.00 0.00 0.00 0.93 0.00 0.1162 0.0000 2.001 18.50 0.00 0.00 0.00 0.00 0.00 0.93 0.00 0.1546 0.0000 2.501 18.50 0.00 0.00 0.00 0.00 0.00 0.92 0.00 0.1929 0.0000 3.001 18.50 0.00 0.00 0.00 0.00 0.00 0.92 O.00 0.2311 0.0000 3.501 18.50 0.00 0.00 0.00 0.00 0.00 0.92 0.00 0.2691 0.0000 4.001 18.50 0.00 0.00 0.00 0.00 0.00 0.91 0.00 0.3069 0.0000 4.501 18.50 0.00 0.00 0.00 0.00 0.00 0.91 0.00 0.3446 0.0000 5.001 18.50 0.00 0.00 0.00 0.00 0.00 0.91 0.00 0.3822 0.0000 5.501 18.50 0.00 0.00 0.00 0.00 0.00 0.91 0.00 0.4197 0.0000 6.001 18.50 0.00 0.00 0.00 0.00 MO 0.90 0.00 0.4571 0.0000 6.501 18.50 0.00 0.00 0.00 0.00 0.00 0.90 0.00 0.4945 O.00DO 7.001 16.50 0.00 0.00 0.00 0.00 0.00 0.91 0.00 0.5319 0.000O 7.506 18.50 0.00 0.00 0.00 0.00 0.00 0.91 0.00 0.5697 MOOD 8.006 18-50 C.00 C.00 0.00 0.00 0.00 0.91 0.00 0.6073 0.0000 8.504 18.50 0.00 C.00 0.00 0.00 0.00 0.92 0.00 0.6450 0.0000 9.004 18.50 0.00 0.00 0.00 0.00 0.00 0.93 0.00 0.6830 0.0000 9.501 18.50 0.00 0.00 0.00 0.00 0.00- 0.94 0.00 3.7212 0.0000 10.006 18.50 0.00 0.00 0.00 0.00 0.00 0.95 0.00 0.7606 0.0000 10.502 18.50 0.00 0.00 0.00 0.00 0.00 0.97 0.00 0.8000 0.0000 11.007 18.50 0.00 0.00 0.00 0.00 0.00 1.00 0.00 0.8410 0.0000 11.507 18.50 0.00 0.00 0.00 0.00 0.00 1.03 0.00 0.8829 0.0000 12.001 18.50 0.00 0.00 0.00 0.00 0.00 1.20 0.00 0.9285 0.0000 12.501 18.50 0.00 0.00 0.00 0.00 0.00 1.48 0.00 0.9837 0.0000 13.001 18.50 0.00 0.00 0.00 0.00 0.00 1.56 0.00 1.0464 0.0000 13.500 i8.50 0.00 0.00 0.00 0.00 0.00 1.58 0.00 1.1112 0.0000 14.002 18.50 0.00 0.00 0.00 0.00 0.00 1.59 0.00 1.1768 0.0000 14.506 18.50 0.00 0.00 0.00 0.00 0.00 1.60 0.00 1.2432 0.0000 15.001 18.50 0.00 0.00 0.00 0.00 0.00 1.61 0.00 1.3089 0.0000 15.501 18.50 0.00 0.00 0.00 0.00 0.00 1.62 0.00 1.3757 0.0000 16.001 18.50 0.00 C.00 0.00 0.00 0.00 1.63 0.00 1.4428 0.000C 16.501 18.50 0.00 0.00 0.00 0.00 0.00 1.64 0.00 1.5103 0.000C 17.001 18.5C 0.00 0.00 0.00 0.00 0.00 1.64 0.00 1.5780 0.0000 17.501 18.50 0.00 0.00 0.00 0.00 0.00 1.65 0.00 1.6460 0.0000 18.001 18.50 0.00 0.00 0.00 0.00 0.00 1.65 0.00 1.7143 0.0000 18.501 18.50 0.00 0.00 0.00 0.00 0.00 1.66 0.00 1.7B27 0.0000 19.001 18.50 0.00 0.00 0.00 0.00 0.00 1.66 0.00 1.8514 0.0000 19.501 18.50 0.00 0.00 0.00 0.00 0.00 1.67 C.00 1.9202 0.0000 20.001 18.50 0.00 0.00 0.00 0.00 0.00 1.67 0.00 1.9892 0.0000 20.5C1 18.50 0.00 0.00 0.00 0.00 0.00 1.68 0.00 2.0584 0.0000 21.001 18.50 0.00 0.00 0.00 0.00 0.00 1.68 0.00 2.1277 0.0000 21.501 18.50 0.00 0.00 0.00 0.00 0.00 1.68 0.00 2.1971 0.000D 22.001 18.50 0.00 0.00 0.00 0.00 0.00 1.68 0.00 2.2666 0.0000 22.501 18.50 0.00 0.00 0.00 0.00 0.00 1.69 0.00 2.3362 0.0000 Advanced Interconnected Channel & Pond Routing (ICPR Ver 2.10) Copyright 1995, Streamline Technologies, Inc. 08/17/03 [21 Node Time Series by Node - DRAWDOWN <---------------- Inflow ---------------- >I Link Cumulative Cumulative Time Stage Surface Base Q Onsite Offsite Bndry Q Link Q Outflow Volume In Volume Out (hrs) (ft) Ar.(ac) (cfs) (cfs) (cfs) (cfs) (cfs) (cfs) (ac.ft) (ac.ft) -------------------------------------------------------------------------------------------------------- 23.001 18.50 0.00 0.00 0.00 0.00 0.00 1.69 0.00 2.4060 0.0000 23.501 18.50 0.00 0.00 0.00 0.00 0.00 1.69 0.00 2.4758 0.0000 24.001 18.50 0.00 0.00 0.00 0.00 0.00 1.69 0.00 2.5458 0.0000 24.501 18.50 0.00 0.00 0.00 0.00 C.00 1.69 0.00 2.6157 0.0000 25.001 18.50 0.00 0.00 0.00 0.00 0.00 1.69 0.00 2.6857 0.0000 25.501 18.50 0.00 0.00 0.00 0.00 0.00 1.69 0.00 2.7555'1 0.0000 26,001 18.50 0.00 0.00 0.00 0.00 0.00 1.69 0.00 2.8252 0.0000 26.501 18.50 0.00 C.00 0.00 0.00 0.00 1.68 0.00 2.8948 0.0000 27.001 18.50 0.00 0.00 0.00 0.00 0.00 1.68 0.00 2.9642 0.0000 27.501 18.50 0.00 0.00 0.00 0.00 0.00 1.68 0.00 3.0336 0.0000 28.001 18.50 0.00 0.00 0.00 0.00 0.00 1.68 0.00 3.1029 0.0000 28.501 18.50 0.00 0.00 0.00 0.00 O.CO 1.67 0.00 3.1721 0.0000 29.001 18.5C 0.00 0.00 0.00 0.00 C.00 1.67 0.00 3.2411 0.0000 29.501 18.50 0.00 0.00 0.00 0.00 0.00 1.67 0.00 3.3101 0.0000 30.001 18.50 0.00 0.00 0.00 0.00 0.00 1.66 0.00 3.3789 0.0000 30.501 18.50 0.00 0.00 0.00 0.00 0.00 1.66 0.00 3.4477 0.0000 31.001 18.50 0.00 0.00 0.00 0.00 0.00 1.66 0.00 3.5163 0.0000 31.501 18.50 0.00 0.Do 0.00 0.00 0.00 1.66 0.00 3.5848 0.0000 32.001 18.50 0.00 0.00 0.00 0.00 0.00 1.65 0.00 3.6533 C.0000 32.501 18.50 0.00 0.00 0.00 0.00 0.00 1.65 0.00 3.7216 0.0000 33.001 18.50 0.00 0.00 0.00 0.00 0.00 1.65 0.00 3.7898 0.0000 33.501 18.50 0.00 0.00 0.00 0.00 0.00 1.65 0.00 3.8579 0.0000 34.001 18.50 0.00 0.00 0.00 0.00 0.00 1.64 0.00 3.9259 0.0000 34.501 18.50 0.00 0.00 0.00 0.00 0.00 1.64 0.00 3.9938 0.0000 35.001 18.50 0.00 0.00 0.00 0.00 0.00 1.64 0.00 4.0616 0.0000 35.501 18.50 0.00 0.00 0.00 0.00 0.00 1.64 0.00 4.1293 0.0000 36.001 18.50. 0.00 0.00 0.00 0.00 0.00 1.63 0.00 4.1969 0.0000 36.005 18.50 0.00 0.00 0.00 0.00 0.00 1.63 0.00 4.1975 0.0000 Appendix E Run-off Data IP _£ s 525 a4a�a Page 5 ofsrN, P Table 57.8 .: SCS RUNOFF CURVE NgrIBERS FOR $ELECTED. AGRICULTURAL, SUBURBAN. AND URBAN ;LANb I3SR _ Hydral..o gio I Svi GroojV Land Use'.Description . 5 A. Cultivated Landa r E. Without conservation treatment 72 81 88 9i" With conservation treatment 62 71'. 78 81 Y 4 Pasture or range hand:;.. - _ Poor_ condition 68. :.79 Good condition 39 61 74 80 Meadow: good condition 30 ,. 58 - 7 78­ { Wood or Forest..Land: # - Thin stand poor cover,no mulch_,:. 45 66 77` 83._'' _ Good: cover - 25. 55 70 77 Open Spaces, Lawns, Parks, Golf Courses, Cemeteriess, Good.condition grass cover on,.75% or more -"of the area Fair. conditiob: grass:. cover on 50% to 75$.o 'the are Poor. eonditi.on r '.grass` cover on 50$ or less . of -he area:,.`_' {i8> 79 8ii Commercial and Business Areas (85� impervious). 8g: 92 9 gS LL Industrial Districts (72% impervious) Hl' 88 9l 93 ; Res identialc Average Tot size Av@gage a zmperviou5 1/8 acre 4r Iess 65 T7- 85 9- 92 1/4 acre _ 1/S acre 30: 1/2 acre 25' S.. 70 $0 85 L acre:' - 20 51 Paved Parking. Lots;, 12oofs; Drivewaysee 98 98 Streets and Roads Paved ;with curbs and storrrr sewerse 96 9B �8 48 ' 4 Gravel.... 76 8 3 y Dirt... 72. &2 87 8�w Paved with open ditches 8.3 Newly .graded. area (no vegetation. establij5hed)., 77- 86 For a more.detailed description. of agricultural land use tvrve numbers..,: refer to Table 5-9.' _. . :... Good cover is �irotet£ed f�roe grazing and litter and'brysh cover soil cCrtrve nfimb0s ,are computed' assumi g the runoff--- fr_ox the .house .and driveway is directed treetwiha411 froodhst1c_ande swhere add tional, -infiltration could'at<cu d'Phe remainin ervious areas (lawn? are consis7ered..ta be. g p in good pasture condition €or _ these curve .numbe-rs - eIli ome:warmer::climates of -the country,. a curve number of-9� may be used Y. A � fuse for temporaryconditions'during ..grading and construction. Note Tese values afire for.:Antecederit. Moisture Condition 'II, and I - 0.2S.. Refezetice USDA, SCSI, TR-55 (1984). gnR299b/06e 625-040-205-a Page 49 of 98 Table 5-4 OVERLAND FLOW.MANNING'S n VALUES Recommended Value Range of .Values Concrete .011 .01 - .013 --� Asphalt P .012 .01 - .015. Bare sands .010 .010 - .016 :...:. -;> Graveled surfaces .012 .012 - .030 Bare clay -loam (eroged)s .012 .012 - .033 _ Fallow (no residue) .05 .006 - .16 W ,.. Chisel plow (<1/4 tons/acre residue) .07 .006 - .17 Chisel plow (1/4 - 1 tons/acre residue) .18 .07 _ .34 Chisel plow (1 - 3 tons/acre residue) .30 .19 - .47 Chisel plow (>3 tons/acre residue) .40 .34 - .46 Disk/Harrow (C1/4 tons/acre residue) .08 .008 - .41 Disk/Harrow (1/4-- 1 tons/acre residue) .16 .10 - .25 Disk/Harrow (1 _ 3 tons/acre residue) .25 .14 - .53 n Disk/Harrow (>3 tons/acre residue)' .:30 -- -- No till (<1/4 tons/acre residue) .0.4 .03 - .07 No till (1/4 - 1 tons/acre residue) .07 = .01 - .13 No till (-1 - 3 tons/acre residue) .30 .16 - .47 Plow (Fall) .06 .02 - .10 =t' Coulter .10 .05 - .13 Range (natural) .13 .01 - .32 Range (clipped) .08 .02 - .24 Grass (bluegrass -.sod) .45 .39 - .63 F>;. Short grass praires .15 .10 - .20 `l c Dense rass .24 .17 - .30 Bermudagrassc .41 .30 - .48 Woods 6J.4h - uN"a6oeuSJN) .45 -- -- -=-' All values are from En an 1983), unless noted otherwise. sWoolhiser (1975) . bFallow `. has been idle for one year and.is:.,fair-ly smooth. _- cPalmer (1946). Weeping lovegrass, bluegrass, buffalo grass, blue gramma ;::.. grass, native grass mix (OK), alfalfa, lespedeza. Note: These Values were determined specifically for overland flow conditions �w and are not appropriate for conventional open channel flow calculations': See Chapter 7 of this volume for open channel flow procedures. y,. gnR299b/06a 4.6 4.8 __ .. .. 5.0 ST. JOHNS RIVER WATER MANAGEMENT DISTRICT 4 i 4.2 4.4 NASSAU MAKER �,�" �DUVAL -k r-ST C CLAY �A."FORD i JOHNS iL A apmalbe 4.0 42 r�....lk • 10 1 PUTNAM ■� 44 I ALACHUA 1 t i ' L FLAW ER • � i Ocala MARION ( ii■en VOLUSIA LAKE L 1 , 1 Van 4.2 : SEhUNO TI ORAMM r - � 1 t9 4.4 E•tl �'{ O i tL... OSCEOLA i w 4.8 5.0 POLx "u► Q i t 1 Rif AN 2 6 i \ � ip■ra OtCEEC;OiEE - •-4.5--- .. . 44 9-6 Figure 9-2 Mean Annual 24-hour Maximum Rainfall, inches Source: Rao, 1991 r 8.5 9.0 9.5 ST. JOHNS RIVER T5 WATER MANAGEMENT DISTRICT 8.0 NASSAU y Jacksonville • BAKER %DUVAL -� ; r' 0 t i c CLAY ST. -BRADFORD JOHNS St. Augustine i� Gainesvill i Palatka T.5 • D PUTNAM 8.0 \ ALACHUA ! 8.5 f - j FLAGLER _ Ocala j ~ MAR]ON. j Daytona I I Deland i VOLUSIA q LAKE Leesburg I -- — Sanford — 1 1 SEMlNOLE Tltuavllte . `•L_ `- ` ,Orlando � �—f — . ORANGE I L _ __ _ OSCEOLA ! 1 r Melbourne,` i POLK i i 8.5 i I INDIAN 9.5 - —.av{—---------•--------- I —_ RIVER Vero ,Beach ! OKEECHOBEE 9.0 Source: SJ 88-3 25-Year 24-Hour Maximum Rainfall for Northeast Florida, Inches_ A-8 Chapter III: Performance Criteria Article XII: Surface Water Management C. Whenever practical, as indicated by soil characteristics, water table elevation, and topography, the overflow from any swale used shall be diverted to percolation areas, ponding areas, or natural or artificial seepage basins of sufficient capacity to retain and provide for the maximum infiltration of stormwater runoff from each drainage area for the design storm. d. Whenever practical, except in those development projects where.temporary ponding is allowable, each percolation or retention area shall include positive drainage facilities which provide for drainage to public outfalls or a lake, or watercourse, to handle the runoff from storms of longer duration and severity than the design storm. e. The area surrounding a retention or detention basin is recommended to be used as private or public open space and shall be grassed unless the slopes exceed 4:1 which would require sod. f. The Soil Survey of Indian River County published by the U.S. Department of Agriculture, Soil Conservation Service:. 1987, shall be the document to determine soil classifications. Such soil classification may be modified by on -site testing and engineering evaluation. g. Flood routing analysis for all new Local road facilities shall show that the water elevation shall at no time during the design storm duration exceed an elevation that would: (1) Permit floodwater encroachment outside existing drainage easements or right- of-way for a three-year/twenty-four-hour duration storm. (2) Place more than twenty (20) percent of the front yard or rear yard -area below floodtiyater elevation any time during a ten-year/twenty-four-hour duration storm. (3) Exceed two inches above the lowest elevation on the centerline profile of the roadway for a twenty-five-year/twenty-four-hour duration storm. (4) Exceed the finished -floor elevation of any structure for a one-hundred- year/three-day duration storm for projects located in a flood hazard area. h. All new stormwater discharging into any canal or receiving water body shall be designed to convey the permitted discharge after tailwater conditions are considered. i. All bridges'shall be designed to pass the one hundred-year/three-day duration storm event. j. All drainage easements shall be sodded. 10.. Material specifications for culverts and storm sewers. The following pipe materials are acceptable: a. Reinforced concrete pipe; aluminum pipe; aluminum pipe arch; or HDPE. Other pipe material may be used if approved for the intended use by the Florida Department of Transportation (FDOT). In private systems, bituminous -coated steel may be acceptable as determined by the City Engineer. Land Development Code Page XII-6 City of Sebastian 6/8/2000 4:20 PM Appendix F Fiduciary Letter Deed "J,'r"Vi i C.7 40 r (oU dUUy I U bt-HULr t= H. 16�/04 Its , or5 t� �1�t9G" i 114 t7tig 1asu-419tt at prep=dt by (H YH€ AECOAl54' OF rbtum to; JEWIC- K. 13AIlTOR CLEt,K CIRCLUt COURT Dorrils G. Cortlak, $sq, t14mm ttiVER CO., Ftk. W DgAN, MEAD, MINTON &- KLMN N W 1903 South 2PStreei, Su1110 200 Fort Plow, Florida 34947 (561) 464-?f00 D6CUf�lENTAAY S7AFSPS � For OFTloiui Use Only OEFQ i Tsx PArcol ldottil#ictttlon Nos, NOTE$ ab•31.39.004(X?•5000-0na14.0 JIFFREY K, SANON. CLERK 0�-31.39.00000.5000.0a01 5,0 110LM R1VEH COUNTY (11ANZRALMAR�UNIV DF.Eta N THIS OENI+R>AL WARRANTY DISED Is tnsdo as of the 261h day of l)"cmber, 2001, by VIROIL V. THORNTON, wkJB VX, THORNTON, whose post otilco arl draw is 4250 r- 9i1 Stre1;1, Vern Botch, FL 32960 ("Grmior), to SNOOK PROPERTIES, LLC, a FiOMA limited c7 lipbility company, whose post office address is 4250 P Stmot, Vary 1344ch, FL 329% ("arsOw"), (Wltomvor used heroin, the tgms "Grunttir" and "Cratttet" include all ft panics on to thls Instrument and the helrs, personal reprec.entutivas and assigns of in&iduals and the eLmeeesars and W1843 of corporations, partnerships, govommantpl and guttsl-govcmmcnW cadt[M) W1Tr1 F.SS HT11 That Grampr, far wtd in conslderadon or the sum of Tan Dollare (SI O.00) and other valuable conaiderntieri, tho reeclpt usd suffIcleney or%vhich is hcrcthy ar knowledpd`, by these prewts does grant, bargain, soli, tiller►, romiso, rolcase, convey twd confirm unto Omitee, oll that certain }saner of real property (the "Load'`) situate In Indian Diver County, Florida and mote parilculwiy dasaribed lit E: ►f rrA". attnehod herein WA m9dc a part her4oh ToomvGR W1'I i4 all the tcncmcats, henditamcnts and appuricttancos thereto balon&iny or in anywise uppertalning. TO HiWl: AND TO HOLD du sonic in fcc Amplo forever. THIS VERD IS UEIAIG RECORDED FORTHESOILRPURPOSP,OF'EVII31:NCING ^^ AND CONFIRMING THAT T118 GRANTEE HEREOF TOOKTITL'E TO THE LAND cr� DUCRIIIEDHERMNPURSUANT TOTHE CONVZRSIONDESCRI)RDINTHFr CERTIFICATI:OF CONVERSION RECORDED -IN OFFICIAL RECORD9'800K Lqfi2, PAGE i OF T HP PUBLIC RECORDS OF INDIAN PI'VE,R COUNTY, :v FLORIDA, GRAi4IF`.E T009 TI-rLF, TO TII E LArib PURSUANT TO -FHE � PROVISIONS OF FLORIDA STATUTES 601,4390), ANI) NO CONSIDERATION NVAs PAID BY GRANTEE TO ORANT1UP, TITLE N(Yl' EXAMINED BY SCRIVENER �scriPticin: Indisn Riwrar,i�. l7Ucusrtt—�ook.paga I457..296P Ps,q�: 1 at' 3 7x ctsr t Dick Ccsrars n t ; — : , v z� - -� r 1- M I,LHmr, C UIVIHN 1 ES 40? 768 2009 TO SCHULKE F . 03= 04 AND Ommo:rharaby covenants with Ormtee that It Is lawfully seized of the !.,arid in fee airnpla; that it has good right and lawful authority to sell and convey the Land; that it hereby fully warrants the this to the Land and will defend tho wno agAinst ilia tr MUI ol&lrsrs of all perwns Nyho rtsuaver. `I'ltis canvcyattca is mbjeot to Wes accruing aubsquent to Decambcr 31, 2000, ands to casemtnts, resWolom, agreements, conditional, limitations, rescrvatlons and other matt>rra of record, if uny, but dais rafordttto to tha Pomping shall ml aperats to o imisase tht: =nc. GRANTOR hereby oertlfica that w of the date of the execution, delivery acid public r"ord4on of LhIs iostt ment, imidtar Grantor nor any member or Grantor's farrtlly residos upon the Land or any parcol of real property cortiiguotm thereto, The Land is not did consllludoanl homestead of Chaim IN WITNESS WHER110F, the Runty mforred to above m Cl antor has caused this lnsitimmt to be "eouted and dollvmd In its namo and hoe: latend?d tho some to be and becon%o efFeelive as oi'tha day and par 11ret abova wrltton. Signed, waJW and delivered in the pn;srsnee ol; tl„�•� dni;wnma MkTI? OF FLORIDA COUNTY OF i.NDIAN RIVER 'Virgil Tltomton Tho foregoing imtmmont WU acknowlodged before nio this 261h day of Ommlxr, 2001, by'Virgil 1:.11ormon. Sall porsan (check 040))K13personally known to tng, U produced a driver's license (issued by a state of the United SuUns within tho last rive (5) years) as Umtificadon, or M pradu«cd athcr ldcmMcatton, to wit, , `etwy Public. State of Florida Commission No.: My Commission Expires: _ lM[w>.P.111W[1kt3iDa�s+pcoc,ywQ�� NVC'AfiYr'�1afJ�Sr.1TEOFiz.0it7oA I COMh1Ftd0: � ;:0. t:C�1S� Oesaript:ion: Tnclj an Rtf.vex, n DOC= nt-Book. Page 1457. 2960 VAge r 2 of 3 9rder r Dick Ccf awls t : S J JI7 c. i cemua r'K U.HiK U-lFt'Hr-1 lt;; 407 768 2009 TO 1CHULKE P. 04/04 ZIT The 5W 1/4 of the SW 1/4 oftho South 534.5 feet oitheNW 1140fthe SW 1/4, leas flue North 254 fit oftha West 200 f44 all in Section s.Towariip31 South, Range 39 East, jr4an lum Gouty, Plosida. -3- e ezlptian: Indllrl Ri"XIrt i70at rst-13aak.Paga 1457.,2960 Saga; 3 a� 3 rda.r; Dick gQaaant; ** TOTAL PAGE.04 ** I-K �..t_HHK �LN1PAH1E9 407 766 2009 TO SCHULKE P.02it32 June 24, 2003 To Whom It May Concern: LETTER OF AUTHORIZATION I, Mr, V.7, bornton, Proideml of Snook Pverti%, hetttty authorize Coy Clark'. Pretidelit, of Clark Dovcalopment Company, to act as agent in all annexation, 7tzoning, permitting and certifictation muttars f®r Mhbury Svb(1iv CeteQ in the City of Sebastian, bdian River County, Florida. This aut'horI7.0cn shall includo Ell enginctrihff an itting serYiees for this subdivision, Sly a .0 e ,M4TL OF FLOR1DA, COUNTY OF WREVARD `wgrn to and 9ubscribcd bofaro the this 1 duyoi �A , 2003, by, �� �Y�r _,_who is personally known to me and who (4LJ) (did not) take an oath. (SEAL) NOTARY PUBLIC AT LARGE fV/my�orWeygw VQW*c0XM +vozgi QTA Pr IN& Noey a gyp, ri LK. Zra 'DWA-Z MQ r.13 GC1 '77Q OCrA7 Onmcf M-3 a TOTAL PAGE.02 Wx. COMMERCIAL INVESTMENT REALTORS & DEVELOPERS June 24, 2003 To Whom It May Concem: COY A. CLARK, CCIM LETTER OF AUTHORIZATION I, Mr. Coy Clark, President of Clark Development Company, hereby authorize Joe Scchulke, P.E., President, of Schulke, Bittle and Stoddard, LLC, to act as agent in all annexation, rezoning, permitting and certification matters for Ashbury Subdivision located in the City of Sebastian, Indian River County, Plorida. This authorization shall include all engineering. and permitting services for this subdivision. a-Q Signature STATE OF FLORIDA, COUNTY OF BREVARD Sworn to and subscribed before me this day of ` �ltix'4 , 2003, by CJ who is personal1v known to me anc ,ho (did) (did not) take an oath. J (SEAL) WARY PUBLIC A" LARGE 40 Ev Offt wry 19, 2007 575 South Wickham Road, Suite E • Melbourne, Florida 32904 (321) 723=9888 • Fax: (321) 768-2009