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Home My WebLink About401 W Seminole Blvdn r, CITY OF SANFORD — - BUILDING & FIRE PREVENTION PERMIT APPLICATION Application No: I ch, Documented Construction Value: $2. - Job Address: 401 W Seminole Blvd Sanford FL 32771 Historic District: Yes ❑ Noz Parcel ID: 25-19-30-300-0070-0000 Zoning: Description of Work: Install one 100 amp service 240v from pole to existing lift station. Disconnect 208v single phase service from pad mount transformer. Plan Review Contact Person: Joe Reaster Title: Project Manager Phone: 407-656-2335 Fax: 407-290-2890 E-mail: joe.reaster@ies-co.com Name Sailpoint at Lake Monroe Street: 401 W. Seminole Blvd. City, State Zip: Sanford, FL 32771 Nam IES Commercial, Inc. Street: 3060 Mercy Drive City, State Zip: Orlando, FL 32808 Name: Street: City, St, Zip: Bonding Company: Address: Building Permit ❑ Square Footage: No. of Dwelling Units: Electrical ✓0 Property Owner Information Phone: 407-322-1051 Resident of property? : Contractor Information Phone: 407-656-2335 Fax: 407-290-2890 State License No.: EC13004329 Architect/Engineer Information Phone: Fax: E-mail: Mortgage Lender: Address: PERMIT INFORMATION Construction Type: Electrical No. of Stories: Flood Zone: New Service— No. of AMPS: 100 amp Mechanical ❑ (Duct layout required for new systems) Plumbing ❑ New Construction - No. of Fixtures: Fire Sprinkler/Alarm 13 No. of heads: N ILL NO. I DATE I, . I CONCRETE SEA WALL' LAKE Z MONROE ........ .. SEMINOLE Nn 0 ---------- - 90' H/W ---------- 7 Qj 17' X" < k ;:�;,o W(Z)��71 c 0 /0 __- _ ell .3 \ [ J Lp /0 1 - 0 ....... . . . 4 14J 7.3 T IT rp C p F \` IlICA'EMI C�a.L /►SINN 2 ! y„r ,... I r 05 1017 q Ale 4 40) %\ (rP\ a. t0l)( C. 'P. IC • 0 6 -7 7010 AJ //jV;= 1:5,2 IDA" :) �;�: d rty I ...... Q I' Ilk, f-1 7 Z_ 19 P V. C. NOR 12, llvg C0 Ill CAJCA.15_E1V1EAJ 7- /(/9 /0 a 9. 9 i 4W/ 0 J 7�:,h AIC. Z.:*,(IL,, 5C ...... 6111(151- � Sc �, ... . . ........ XF 7E/, Al c) Work Description 1. Bore underground 1-1/4" conduit below existing paiking lot approximately 70' and install 4 #1 XHHW aluminum conductors. 2. Trench/backfill underground 1-1/4" pvc conduit with four #1 XHHW aluminum conductors at 3' burial depth approximately 220' 3. Remove one existing single phase 60 amp meter base and remove existing underground service lateral from existing pad mounted 7' 4 Z, transformer. 9 3 4. Connect existing motor starter control cabinet to new 100 amp meter for lift station. 5. Install two new 8' ground rods with #8 bare CLI to earth bond. 6. Install one new 18' above finish grade wood pole within 50' of existing utility pole for overhead servcie lateral attachment by FP&L. 7. Replace existing rusted strut supports between posts with new strut supports, 8. Replace existing rusted alarm bell on top of control cabinet with new alarm bell. 9. Permitting fees, coordination with underground locates and coordination with utility provider included, 101"i 10. Down time to be limited to minimum time to disconnect existing utilities in pad mount transformer to connection to Pod mounted transformer. Note: Service lateral from utility pole calcualted with 5% voltage drop to provide reasonable efficiency of operation, Zt Max ampacity per 310.16 of NEC determine 100 amp @ 75%F and allows 10 amps over actual load. qj Exclusions: 12 '10 -k,) 1. Utility Fees K) 2, Ground Penetrating Radar for utilities under pavement, vl` 2. Sod, mulch, shrub and or plant replacement. 3. Concrete and or asphalt repair/replacement, RISER DIAGRAM NEW 100 AMP SERVICE REVISION APP D N V t L. = 3.5 J PLUG tAjl) /J wlt% 1,0t )MAW rVe X12 7 -OP /J.2 /x4v Mlt/ -CONC. EUCA Sb" -AW. (-<6E SHEET 7) 7 0 _5A Al 8 EX/ST 54AI,01-1- rop IA141 (W) = 7,53 1tV9 (�() =/0, 13 IAV- (s> 7.'Ag 1101.('44) = 10.12 amu' 51A,"r. /k/_0 // "Coe - -,\ .6 11 . . .... �1.___._._.__._..____ 1-C, IZCe Ille441AI .. . ......... . QZ--T U L. T 0' N- T R E E70 70P= /4.27 VO - //V 1/. ( Z-) = //. a? 1A111. (��) = x). 4 Z ELM AVE. /d/[/ ..5 TNI OAIL Y (W) 1(. 0 7 APPROVED FOR cotmrnuc,i,iom MIup,�,,�",W..",--far -,-.---",----,---, 3040 Meicy Drive Orlando. FL 32808 P: 407 656 2335 F:407 290 2890 M: 407 956 7024 IES Commercial, h1r. E: License No.: EC 00021.90 wwwies co.colll 24 he"r FT (Rn7i LL 24 ",PCP T. COME . MA/ .50 --XIS7- COMA.M.H..3 ... ..... .... ............ 7. 71 - ---- ----- X 0 STM. e, 5zFV,-A- 52; SIT EN A P A Pff"I T M E IN T S SANFORD. FLORIDA FLYGiT PERFORM DATE PROJECT 2010-08-02 _FLYGT US Ca 1/1 -LOAD 3/4 -LOAD POWER FACTOR 0.83 0.77 EFFICIENCY 78.0% 79.0% MOTOR DATA --- --- COMMENTS 18. Acutal Voltage with load = Voltage(Celli) - Acutal Voltage drop(CeII17) INLETK 11. Multiplier = 1 (if cell 3 is single phase) -/3.0 NEMA Code Letter: G Multiplier =square root of 3 or 1,732050808 (if cell 3 is three phase) IMP, TF [hp] 12. Resistance/1000' of wire = resistance of the type wire in cell 14 and sized per cell 13 from Table 8 3.5 3.0 21. Minimum wire size = the wire that has low enough resistance to carry W Lhrn Phase :!�- 2.5 0 Selecd phase type Distance =Cell 22 (if unknown and cell 6 is left blank) 2.0 Stranded Aluminum DUTY -POINT FLOW[usgprnl HEAD[f B.E.P, 337 20.4 Amps(Cell 15) x Resistance(Cell 20) x Multiplier(Cell 11) 35- AWG 1 30--_ Resistance/foot(Cell 20) x Distance(Cell 14) x Multiplier(Cell 11) 25--_ Select the size of wire if Known 16. Number of sets of parallel wireszCell 8 (if known and entered in cell 8) The ampacity of the conductor listed in Cell 4 and Cell 13 per 290 Uj 20 r Enter the length of wire (0-5000') it Known then a calculated value will appear to the left of the cell. 7 90 Enter Amps (0-6000) it known 0 0 100 11,1 NPSHre = NPSH3% + inin. operational margin Performance with clear water and ambient temp The following voltage drop calculations were all based on the resistance values in Table 8 of Chapter 9 of the 2002 NEC. This spreadsheet only Voltage Drop Calculations considers voltage drop. Many other factors affect wire size. Refer to thi entire NEC when sizing wire. Minimum voltage allowed at load Actual voltage with load 21 Data Entry Window Minimum wire size for voltage drop 20, Q0 22feetW 1� Distance Printable t iew 1�� x Distance(Cell 14) x Multiplier(Cell 11) I Yes 10. Minimum Voltage drop allowed at load = Voltage(Cell 1) - Max vcI allowed (Cell 9) 18. Acutal Voltage with load = Voltage(Celli) - Acutal Voltage drop(CeII17) 11. Multiplier = 1 (if cell 3 is single phase) 19. Voltage Difference = Actual Voltage(Cell 16) - Min. voltage(Call 10) Multiplier =square root of 3 or 1,732050808 (if cell 3 is three phase) Select the max desired voltage drop (0%-5%) j I 12. Resistance/1000' of wire = resistance of the type wire in cell 14 and sized per cell 13 from Table 8 20. Total Resistance per foot = Res. in table 8 of Cell 4 and Cell 13 1000 x number of parallel wires (Cell 16) 13. Size wire =Cell 5 (if known and entered in cell 5) 21. Minimum wire size = the wire that has low enough resistance to carry 31 Lhrn Phase the load without more than the max voltage drop. 14. Distance=Cell 6 (if known and entered in cell 5) Selecd phase type Distance =Cell 22 (if unknown and cell 6 is left blank) n Stranded Aluminum 15. Maximum Amps= Cell 7 (if known and entered in cell 7) 22. Distance = Max voltage drop(C 119) x parallel wires (Cell 16) Select the type of wire Amps(Cell 15) x Resistance(Cell 20) x Multiplier(Cell 11) Max voltage dlrop(Cell_9) x Number of parallel wires(Cell 8-)-- AWG 1 Resistance/foot(Cell 20) x Distance(Cell 14) x Multiplier(Cell 11) 23. Max Ampacity of the selected wire in CeIll 3 Select the size of wire if Known 16. Number of sets of parallel wireszCell 8 (if known and entered in cell 8) The ampacity of the conductor listed in Cell 4 and Cell 13 per 290 Note: If only one of cells 5,6 and 7 is left blank. Enter the length of wire (0-5000') it Known then a calculated value will appear to the left of the cell. 7 90 Enter Amps (0-6000) it known 11,1 Select the number of parallot wires (I is non -parallel) Or -25pairs ,LAMM Minimum voltage allowed at load Actual voltage with load Enter a into these cells 17,77 77,001out5tK"', ::atio$� EMMM 21 Wire Size Minimum wire size for voltage drop 20, Q0 22feetW 1� Distance Maximum distance with this load Enter a into these cells 17,77 77,001out5tK"', ::atio$� EMMM 24. Amps above or below load = Ampacity of Cell 23 - Ampacity of Cell 15 of Disclaimer: Voltage drop calculations and Table 310.16 are not the only considerations when sizing conductors. Many other factors must be considered, such as: the type of load, the ambient temp, the type of insulation, the association with other conductors, the temperature rating of the equipment, the type of environment, the size of the breaker, the type of circuit (branch, feeder, service, grounding, or control), continuous load, etc. Use this spreadsheet to check voltage drop, See the NEC to size wires. ALBANY TECHNICAL COLLEGE Please report any errors to: Bill Bamford Albany, Georgia Email: lbbarnford0albanytech.ora Date of last revision or correction: Aug. 28, 2004 Formulas used: 9. Maximum voltage drop allowed = Circuit Voltage(Cell 1) X Maximum voltage drop 17. Actual voltage drop = Resistance(Cell 20) x Amps(Cell 15) % allowed(Ce112). x Distance(Cell 14) x Multiplier(Cell 11) 10. Minimum Voltage drop allowed at load = Voltage(Cell 1) - Max vcI allowed (Cell 9) 18. Acutal Voltage with load = Voltage(Celli) - Acutal Voltage drop(CeII17) 11. Multiplier = 1 (if cell 3 is single phase) 19. Voltage Difference = Actual Voltage(Cell 16) - Min. voltage(Call 10) Multiplier =square root of 3 or 1,732050808 (if cell 3 is three phase) If ok then this cell turns green, if not then it turns red 12. Resistance/1000' of wire = resistance of the type wire in cell 14 and sized per cell 13 from Table 8 20. Total Resistance per foot = Res. in table 8 of Cell 4 and Cell 13 1000 x number of parallel wires (Cell 16) 13. Size wire =Cell 5 (if known and entered in cell 5) 21. Minimum wire size = the wire that has low enough resistance to carry Size wire =Cell 21 (if unknown and cell 5 is left blank) the load without more than the max voltage drop. 14. Distance=Cell 6 (if known and entered in cell 5) Resistance = Max voltage drop((Cell 9) x parallel wires(Cell 16) Distance =Cell 22 (if unknown and cell 6 is left blank) Amps(Cell 15) x Length(Cell 14) x Multiplier(Cell 11) 15. Maximum Amps= Cell 7 (if known and entered in cell 7) 22. Distance = Max voltage drop(C 119) x parallel wires (Cell 16) Maximum Amps= see below (if cell 7 is left blank) Amps(Cell 15) x Resistance(Cell 20) x Multiplier(Cell 11) Max voltage dlrop(Cell_9) x Number of parallel wires(Cell 8-)-- Resistance/foot(Cell 20) x Distance(Cell 14) x Multiplier(Cell 11) 23. Max Ampacity of the selected wire in CeIll 3 16. Number of sets of parallel wireszCell 8 (if known and entered in cell 8) The ampacity of the conductor listed in Cell 4 and Cell 13 per Number of sets of parallel wireszl (if unknown and cell 8 is left blank) Article 110.14(C) and Table 310,16. Note: This is the maximum ampacity allowed under ideal conditions. 24. Amps above or below load = Ampacity of Cell 23 - Ampacity of Cell 15 of Disclaimer: Voltage drop calculations and Table 310.16 are not the only considerations when sizing conductors. Many other factors must be considered, such as: the type of load, the ambient temp, the type of insulation, the association with other conductors, the temperature rating of the equipment, the type of environment, the size of the breaker, the type of circuit (branch, feeder, service, grounding, or control), continuous load, etc. Use this spreadsheet to check voltage drop, See the NEC to size wires. ALBANY TECHNICAL COLLEGE Please report any errors to: Bill Bamford Albany, Georgia Email: lbbarnford0albanytech.ora Date of last revision or correction: Aug. 28, 2004