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184-018
Im~9"~roject.Well History File Covee~ge ~ XHVZE This page identifieS those items that were not scanned during the. initial production scanning phase. They are available in the Original file, may be scanned during a special rescan activity or are viewable by direct inspection of the file. ~ Color items: D Diskettes, No, [] Maps: D Grayscale items: [] ,Other, No/Type [] Other items scannable by '~ large scanner [] Poor Quality Originals: OVERSIZED (Non-Scannable) [] Other: ~ - Logs of vadous kinds NOTES: [] Other BY: BEVERLY BREN VINCENT SHERYL MARIA LOWELL DATE: /S/ Project Proofing BY: BEVERLY BREN VINCENT SHERYL MARIA LOWELL DATE: /SI Scanning Preparation (/2. x 30: I ~'/~ + j _,-~,, = TOTAL PAGES !~---//~_~ Production Scanning ~ ~ / ~ ~ Stage 1 PAGE COUNT FROM SCANNED F.LE: /~ BY~ Stage 2 BY~ (SCANNING IS COMPLETE AT THIS POINT UNLESS SPECIAL ATTENTION I$ REQUIRED ON AN IN01VIDUN. PAGE BAS $ DUE TO QUALITY. GBAYSCALE OR COLOR IMAGES ) UNT MATCHES NUMBER IN SCANNING PREPARATION: YES X NO IF NO IN STAGE 1, PAGE(S) DISCREPANCIES WERE FOUND: ~ NO IIIIIIIIIit11111111 ReScanned (i~Jdiuidu,~l pag, e [special a~tention] scanning corr~pleted) RESCANNEDBY; BEVERLY BREN VINCENT SHEEYL MARIA LOWELL DATE: Is/ General Notes or Comments about this file: Quality Checked MEMORANDUM TO: THRU: AI~S~ OIL A~ID GAS CONSERVATION COI:SMISSION C.V. lC~erton DATE~ August 22, 1984 Chai~~\~/ :' F,LE NO~ D. 3I. 51 Lonnie C. Smith C~s sioner TELEPHONE NO: State of Alaska,- FROM: Bobby Foster~ ~- Retroleum Inspector SUBJECT: Inspect Gulf' s Cross Island #1, for Final Location Abandonment. l--I,~ Tuesday, August 21,~1984: I met with Harold Fahrlender, Gulf repreSentatiVe, an~ traveled to Cross Island to inspect for final location abandonment. : As the attached pictures show the location is clean of trash. The location was left with "wind-rows" per a request from Dave Densmore, State of Alaska Fish and Game representative. Fish and Game also agreed to placing the small house on'the pad area. I recommend to the commission that this location be accepted as abandoned. Pictures attached. fi?.clr) 1A f R,4.'v 10/79~ SURFACI.; ABANI)O'JtlENT RI~POI~T 20 AAC 25, ARTICLE 2 Address /~,.~. ~ 7/220~ , //~d~o~.o~.. Surface Lbca~iCn of Well Permit No~ ~/ ~ Ft. F~ L, ./~77 Fl' F~ L, AP1 No. 5~- Sec. ~ , T/3. ~, %/& Z ,' d' ~1. Unit or Lease Name t No. 20 AAC 2~.120: WEI,L ABA~DOtIHENT t-b~kKER: - - Dia. Steel Post (4"/.lin.) ~ Leogt~ (lO' Min.) -- , Height Above Final Grade Level (4' Min.~ ~/~/~ ~/~o~g~ ~¢/~ ~~ /¢.. Top of Marker Pipe Closed with: Cement Plug Screw Cap Welds Set: On Weii Head , On Cutoff Casing , In Concrete Plug , Distance Below Final Grade Level Ft. in. Side Outlets: All Valves and Nipples Removed All Openings Closed , With Blinds , Wi{h Cement , Other INFORHATION BE,\I)WEI, DEI) I) I. RF~CTF~I,Y TO NARKER POST: (List ~q~ere Different from File Information) Operator -- Unit or Lease Name Well Number , Surface Location of Well: Ft. F L, Ft., F L, Sec , T , R , 1.1 20 AAC 25.170: LOCATION CLEAN-UP PITS: Filled In.~, Liners Removed or Buried ?~.~, Debris Removed ~f~ SURFACE OF PAD At-iD/OR LOCATION: Rough" , Smooth , Contoured Other _.~_--,' k~.~ . _~PffP~ Cd CLEAN UP OF PAD AND/OR LOCATION: Clean t_.-~, Pipe Scrap Paper- , Other , Flat , Compacted , , Iron Scrap , Wood , Mud , Cement SUR ROUND lNG 'AREA: Wooded , Brush Sand , Other /~/ //~ CONDITION SURROUN1)ING AREA: Tundra , Grass , Dirt , Gravel , Clean ~~/r,c~sh from Site Other ACCESS RO/~D: Dirt__, Gravel Ice , Trees and/or Brush frown Clearing Site , CONI)[TiON ACCESS ROAD AND StlRROUNI)ING: Clean , /Rqug~h , Smooth _, Trash from Operations , Trees ~r~/~t, from Clearing Road __, Spoil from Clearing Road Other No Final Inspection DATE ~--~/-~/ ALASKA OIL A#D GAS CO#$ERVATIO# CO,M, MISSlO;~ Bill Sheffield Governor 3001 PORCUPINE DRIVE ANCHORAGE,ALASKA 99501 ~-3'i 9 2 TEL EPHONE (907) 279-1433 R I:'CE. V£D II I;'i~ ALASKA TASK FORCE We .wish to bring to your attention that the Commission has not yet received the following required items on the subjectwell which our records indicated was completed ~,~-- - Article 536(b) of Title 20, Chapter 25, Alaska Administrative Code, stipulates that this material shall be filed within 30 days after completion of a drilled well. Please submit the above missing material. Sincerely, C. V. Chatt~rffon Chairman RECEIVED JUL i 0 1984 Gas Cons. Commission Anchorage BEAUFORT SEA CROSS ISLAND USCG RA CON TOWER WELL SITE DETAIL Sca l e :, I": 500' ~ . F~ND. AZ. 79° 39"03'68' GULF OIL WELL SITE U. S. C.G. RACON TOWER LEGEND LAT. 70° 29' 32. 524" LON. 147°.58` 55.73:3" X : 746777.663 Y : 6033772.056 N = 7820898.30 E : ' 463395 *68 LAT. 70© 29' 37.50:~' X,Y Alaska Stole Plane LON. 147© 57' 30.773" -Zone4, Feet X: '749645, 248 Y : 6034394.774 hi: 7821044-7 E =-464277.7 N,E UTM Zone 6, Meters WELL LOCATION 3175 feet west of the east line, and 1517 feet north of the south line of Section I0. NOTES I, Bearings Shown Are From The Well Site To The U. S.C.G. Rocon Tower. 2. Bearings Shown Are True Bearings. 3. Well Sile Position Determined By Satellite, 4. U.S.C.G. Rocon Tower Position Data From Of 1976, JUL 1 0 CERTIFICATE OF SURVEYOR I hereby cerhfy tholl om properly registered and licensed to practice land surveying in the Stole of.' Alaska end that 1his plot represents o I(~cotion survey mode by me or under my direct supervision oz~dthot oll detoiJs (]re correct. Alaska Oil & Gas Cons. Commission Anchorage CROSS ISLAND WELL SITE SURVEY Located in Section I0 Township 13 North, Range 16Easl, Umiat Meridian, Alaska BEAUFORT SEA BLK. 54 NO. 1-A GULF-OIL EXPLORATION AND PRODUCTI ON COMPANY BY INTERNATIONAL TECHNOLOGY LIMITED :~ENVER, COLORADO ANCq,,~AGE, ALASKA tiOU STON ,TEXAS Bill Sheffield Governor OIL ,4HD G~t$ 3001 PORCUPINE DRIVE ANCHORAGE,ALASKA 99501 '~3192 TELEPHONE (907) 279-1433 Permit No. We wish to bring to your attention that the Commission has not yet received the following required items on the subject well which our records indicated was completed ~3-'~>~--~./-/ : Article 536(b) of Title 20, Chapter 25, A%aska Administrative Code, stipulates that this material shall be filed within 30 days after completion of a drilled well. Please submit the above missing material. Sincerely, C. V. Chatterton Chairman d. A. Layton HANAGER, ALASKA TASK FORCE P. O. Box 112206 301 Danner Ave., Suite 300 Anchorage, AK 99511 April 27, 1984 Alaska 0~1 and Gas Conservation Commission 3001 Porcupine Drive Anchorage, AK 99501-3! 92 Re' Permit No. 84-18 Beaufort Sea Block 54 Well No. lA Dear Commissioners' Gulf Oil Exploration & Production Company herewith submits two copies of' . e Form 10-403, Sundry Notices and Reports on Wells, which provides our subsequent report of abandonment. Verbal authorization to plug and abandon the well was obtained on March 23, 1984, from Blair Wondzell.- Form 10-407, Well Completion or Recompletion Report and Log, with attachments. If you have any questions, please contact Mr. Vince Angell Jochens at (907) 349-4522. JAL.AEJ:jkW Attachments cc- Vince Angel! Ann Jochens A DIVISION OF GULF OIL CORPORATION Very Truly Yours, A. Layton o-r Ms. Ann RECEIVED APP, 2 7 AlaSl~ Oil & Gas Cons. Anchorage A. Layton MANAGER, ALASKA TASK FORCE April 27, 1984 P. O, Box 112206 301 Danner Ave., Suite 300 Anchorage, AK 99511 Mr. C. V. Chatterton Alaska 0il & Gas Conservation Commission 3001 Porcupine Drive Anchorage, Alska 99501 Gulf 1-A Beaufort Sea Block 54 Cross Island, North Slope, Alaska Dear Mr. Chatterton' As requested by 20 AAC 25.536, we include herewith the below listed Geologic Data and Logs' ~'~ki~,~'~ j~~print~ and one mylar of mud log. ~_-- ..... , ~~ -I).-~v, ~v~~- One set of washed and dried cuttings. ~j ~6mo-/ ' ~ r(~ .... ~ 3. List of geologic markers encountered_ ' - '~,~ I 4. One print and one mylar of final~comDoslte '~0~- [-~ // (TDT/GR/CCL were Only logs run.) ~ 5. One copy of directional survey. Gulf requests that all these materials be kept CONFIDENTIAL for the l~n/~s~t time period permitted by law. / Please confirm receipt of the above mentioned items by returning a ~signed copy of this letter to the above address. Very truly yours, d. A. LAYTON Manager Alaska Task Force JAL/AWS/jk enclosures RECEIVED BY' DATED' __ ~, .......... -~,.o~. u. ~ (Jas Cons. Commission Anchorage A DIVISION OF GULF OIL CORPORATION ~--, STATE Of ALASKA ALASI~ .)IL AND GAS CONSERVATION., ,VlMISSION SUNDRY NOTICES AND REPORTS ON WELLS DRILLING WELL [] COMPLETED WELL [] 2. Name of Operator Gulf Oil Corporation 3. Address P.O. Drawer 112206, Anchorage, AK 99511 4. Location of Wen 3175' FEL & 1517' FSL Section 10, T13N, R16E, U.M. at TD=14,534' TVD ~ 14,240.4" 2902' FEL & 2142' FSL Section 10, T13N, R16E, U.M. 5. Elevation in feet (indicate KB, DF, etc.) 44.58 DF 6. Lease Designation and Serial No. ADL-312806 OTHER [] 7. Permit No. 84-18 8. APl Number 50- 029-20754-01 9. Unit or Lease Name Beaufort Sea Block 54 10. Well Number 1-A 11. Field and Pool Wildcat 12. Check Appropriate Box To Indicate Nature of Notice, Report, or Other Data NOTICE OF INTENTION TO: SUBSEQUENT REPORT OF: (Submit in Triplicate) (Submit in Duplicate) Perforate [] Alter Casing [] Perforations [] Altering Casing [] Stimulate [] Abandon [] Stimulation [] Abandonment [] Repair Wel! [] Change Plans [] Repairs Made [] Other [] Pull Tubing [] Other [] Pulling Tubing [] (Note: Report multiple completions on Form 10-407 with a submitted Form 10-407 for each completion.) 13. Describe Proposed or Completed Operations (Clearly state all pertinent details and give pertinent dates, including estimated date of starting any proposed work, for Abandonment see 20 AAC 25.105-170). Well is abandoned due to no Commercial accumulations of hydroCarbons present. Set 400' plug below retainer f/12,670'-12,270' w/210 sks CI "G" + 1% CFR-2 .4% Halad 24 @ 15.8 ppg. Set 10 sks on retainer. Set 400' plug f/8200'-7800' w/140 sks Cl "G" + o1% HR-7 @ 15.8 ppg. Sqz. 13 3/8" x 9 5/8" annulus w/ 150 sks Cl "G" + .75% CFR-2 .5% Halad-9 .2% HR-7 @ 15.8 ppg. followed by 933 sks Perma-Frost @ 14.7 ppg. Set 200' plug f/3334'-3134' w/80 sks Cl "G" neat @ 15.8 ppg. Set 50' plug at top of csg. f/98'-48' w/20 sks Perma-Frost @ 14.7ppg. The wellsite will be ready for final inspection after start of open water season. RECEIVED APR 2 7 19B4, Ataska Oil & Gas Cons. 6omrnis¢o~ 14. I hereby certify that the foregoing is true and correct to the best of my knowledge. Signed ~, -'C~'r'~~'-~"ClV'~"~ TiceManager Alaska Task Force The space below fob'Commission use Date 4-27-84 Conditions of Approval, if any: By Order of Approved by COMMISSIONER the Commission Date Form 10-403 Rev. 7-1-80 Submit "Intentions" in Triplicate and "Subsequent Reports" in Duplicate ~.~... STATE OF ALASKA ALASK' .. AND GAS CONSERVATION ;~-"'"MISSION ' WEL . COMPLET LO Il;iN OR RECOMPLETIOi't riEPORT AND 1. Status of Well Classififatior, of Service Well OIL [] GAS [] SUSPENDED [] ABANDONED [] SERVICE [] 7. Permit Number 84-1 R 8. APl Number 2. Name of Operator Gulf 0il Corporation 3. Address P.O. Drawer 112206, Anchorage, AK 99511 4. Location of well at surface At Top Producing Interval At Total Depth 2902' 175' FEL & 1517' FSL Section l~)~j]]_3~R16[ · M. I LOCATiC'NS i t Surf. ¢._, FEL & 2142' FSL Section 10, 5. Elevation in feet (indicate KB, DF, etc.) 46' KB 6. Lease Designation and Serial No. ADL-312806 50- 029-20754-01 9. Unit or Lease Name Beaufort Sea B10ck 54 10. Well Number I-A 1 1. Field and Pool Wildcat 12. Date Spudded ~//'I- AZ i 13. Date T.D. Reached 3- 8-8 17. Total Depth (MD+TVD) 118. Plug Back Depth (MD+TVD) 14,534' MD 14,240~4' TVD N/^ 22. Type Electric or Other Logs Run 14. Date Comp., Susp. or Aband. 15. Water Depth, if offshore 16. No· of Completions 0.3/29/84 6 feet MSL 0 19. Directional Survey I 20. Depth where SSSV set I 21. Thickness of Permafrost YES [] NO []I N/A feet MDI ESTMD 1500' KB 23. 30 157.53 CASING SIZE WT. PER FT. 13 3/8 72 13 3/8 72 9 5/8 53.5 9 5/8 53.5 9 5/8 53.5 Const. GRADE N-80 L-80 S-95 N-80 CASING, LINER AND CEMENTING RECORD SETTING DEPTH MD TOP 53 BOTTOM 1 1 50 2093 2093 3234 49 5151 5151 1,226 2,470 S-95 11,226 24. Perforations open to Production (MD+TVD of Top and Bottom and interval, size and number) HOLE SIZE 17½ 17½ 12¼ 12¼ · 12¼ 25. Driven CEMENTING RECORD N/A AMOUNT PULLED 0 5667 SKS Perma-Frost' 0 & 300 SKS "G" Tail 0 3825 SKS "G" 0 0 TUBING RECORD SIZE DEPTH SET (MD) PACKER SET (MD) 26. ACID, FRACTURE, CEMENT SQUEEZE, ETC. DEPTH INTERVAL (MD) AMOUNT& KIND OF MATERIAL USED 27. PRODUCTION TEST Date First Production [ Method of Operation (Flowing, gas lift, etc.) I Date of Test Hours Tested 1PRODUCTION FOR I OIL-BBL GAS-MCF IITM PERIOD ~ I Press. 124-HOUR RATE '-~ 28. C OR E DA TA ~14CE / V E D Brief description of lithology, porosity, fractures, apparent dips and presence of oil, gas or water· Submit cor None WATER-BBL~,¢~ I CHOKE SIZE 1GAS'OILRATIO WATER-BBL lOlL GRAVITY-APl (corr) APR 2 71984 Alaska Off co, . uct~orage Form 10-407 Rev. 7-1-80 CONTINUED ON REVERSE SIDE Submit in duplicate 29. NAME GEOLOGIC MARKERS Sag Ri ver Arg i 11 i te MEAS. DEPTH TRUE VERT. DEPTH 14,273' 14,490' 14,059' 14,209' 30. FORMATION TESTS Include interval tested, pressure data, all fluids recover~ and gravity, GOR, and time of each phase. NONE NONE 31. LIST OF ATTACHMENTS Well History and Directional Survey~ 32. I hereby certify that the foregoing is true and correct to the best of my knowledge Signed Manager Tn~eAlaska Task Force Date 4-27-84 INSTRUCTIONS General: This form is designed for submitting a complete and correct well completion report and log on all types of lands and leases in Alaska. Item 1: Classification of Service Wells: Gas injection, water injection, steam injection, air injection, salt water disposal, water supply for injection, observation, injection for in-situ combustion. Item 5: Indicate which elevation is used as reference (where not otherwise shown) for depth measurements given in other spaces on this form and in any attachments. Item 16 and 24: If this well is completed for separate production from more than one interval (multiple completion), so state in item 16, and in item 24 show the producing intervals for only the interval reported in item 27. Submit a separate form for each additional interval to be separately produced, showing the data pertinent to such interval. Item 21: Indicate whether from ground level (GL) or other elevation (DF, KB, etc.). Item 23' Attached supplemental records for this well should show the details of any multiple stage cement- ing and the location of the cementing tool. Item 27' Method of Operation' Flowing, Gas Lift, Rod Pump, Hydraulic Pump, Submersible, Water In- jection, Gas Injection, Shut-in, Other-explain. Item 28: If no cores taken, indicate "none". WELL HISTORY (February 2, 1984 - March 29, 1984) Gulf 0il Exploration & Production C~pany Beaufort Sea Block 54 #1-A (Cross Island) Wildcat North Slope, Alaska Surface Location: Cross Island 3175' FEL x 1517' FSL SEC: 10 TWP: I2N RGE: 16E Lat: 70 2g ' 32.32" Long: 147 58~ 55.73" BH Location: 2902' FEL x 2142' FSL SEC 10 TWP i3N RGE 16E Elevations: KB: 46.0' DF; 44.5' GL: 10,5' Kick Off Point' 12605' Total ~pth: MD 14,534~ TVD 14240.4' Casing: 30" ~ !14' ] 3 $/8" ~) 3234 ' 9 5/8" e 12470' TYPE ELECTRIC LOGS RUN: i mrm m ....... GR/TDT/CCL (Run Inside Drill String) Note: Dally Operations Sugary ~ported at 6:00 AM for Date Indicated. DATE I DA!LY_. O..P.E,.R,AT I O_N. $ SUMMARY 2/2/84 Depth - 14538), 0tz. Arg$] & Ce]cite, 0'/0 hfs, 9 5/8" CSG ~ 12470', ]2.0 # mud 6] VIS 5.6 WL ~000 eL, ~0C - test rams m~n~fo]~ & ve%ves to lO000 ~ & 500 ~, test hydri] to 2500 ~ & 500 ~, ~am UP ~h]umberge? u~i[ & tools, RU ~hlum~rger to run ~ro. 2/3/84 Depth - 14538' Qtz Argi] & Calcite 0'/0 hfs g 5/8" CSG ~ ]2470', ]2.2 # mud 54 VIS 4.8 WL 2000 CL, Run Sch]umberger Gyro to ]]860', RD Schlumberger, PU & ?IH w/ $'/~" Bit to I)65]' - Steam Ice Plugs F/each Std pipe, Clrc &-treat mud 2/4/84 Depth- ]4538' P~TD ~ ]2605', 0'/0 hfs, 9 5/8" CSG ~ ]2470', ]2'.8 ~ mud 70 VIS 5.2 WL 2000 CL, Wash F/]1651' - ]]938', Drill Cant F/JIg36' - ]~7470', Wash F/]2470' - 12560' anti tend Mud & Raise Wt to 12.4 PPG, DrJ]] Cmnt F/)2560' - ]2605' {a ]5 - 20 M 70 - )00 RPM, Ctrc & Cond Mud - Raise mud Wt to ]2.8 & work pipe, Wiper Trip 2/$/84 Depth- ]4536' PBTD- ]2605', 0'/0 hrs, g 5/8" CSG L) 12470', ]2.8 # mud 57 VIS 4.9 WL 2000 CL FIN Wiper Trip F/]2605' - ]2377' W/ No fi]), Circ BTMS Up, PDH, RU Dresser At]as & Sperry Sun, Run Gyro F/300' - ]2400', RD Dresser Atlas, PU & TIH W/ 8~" Bit 6~" Dyne Drill FLT SUB 2o Bent Sub 4 - 61~" Mone] DL's Jars & 30 Ors 5" OD HWDP Survey: ]2,400' 1.28 525.3°£ 12,305.8' ]75.5' S 37.9' W 2/6/84 Depth- 14538' PBTD- ]2619', 0'/0 hfs, 9 5/8" CSG 0 ]2470'., ]2.8 N mud 57 VIS 5.l WL 2000 CL, FIN ?IH - Cut DL, RU Dresser At]as, RIH W/ Steering ldo], Orient Dyne Wash F/J2585' - J2605', Dyne Drill F/I26US' - ]~619~& Dyne Dri]] 5ta~ing ~t, WL survey- w/ No ~rvey, RD Dresser Atlas, POH W/ Dyne Drill ~/7/84 Depth - 1;)660', 4l'/SYz hfs, 12470', ]2.8 # Mud 47 ViS 5.2 WL 2000 CL, FiN POH - 2 ~ts plugged, lay Dn Dyne Drill & .PU Navi Drill, TIH, RU Sperry Sun & Dresser Atlas, RIH W/'steer~ng too], orient Nevi clr~]J Wash F/126]0' - ]2619',~~1] F/]2619' - 1266Q~'_ w/ Bit pump, Rum WL SUY DATE ,t).A_I_,L Y OPERATION8 iUMMARY 2/6/64 Depth - ]2696', 36'/5 hrs, 9 5/8" CSG ~ 12,170'., ]2.8 # mud 52 VI5 5.] WL 2000 CL, WL SVY - Repair packoff, TIH w/ steering too], Orient Nav~ DriI], Dyne Drill' F/I2662 - 12696' w/ blt ~ 42 SDGH made 77'/j3~ hr5 ~ 20 M ]85 - 350 RPM )9DD N pump T6 ~ GO, POH w/ WL - no SVY, RD Sperry Sun & D~sser Atlas, RTCB Survey: )~660' .75~ 5 30~ E ]2655.B' ]79.6' S 35.6' W 2/9/84 Depth - 12733', SH & Silt, 37'/8 hfs, 9 5/8" CSG ~ 12470', 13.0 # mud 46 VIS 5.0 WL 2000 CL, FIN R?CB, RIH w/ steering tool, orient Navidrt]], Dyne Drill F/]2096' - ]2724', WL SVY, RIH w/ steering tool, orient Navidrl]], Dyne I)r]]] to ]2733' w/ Bit #43 5DGH made 37'/6 hfs e 20 Id 18U- 350 RPM ]90D # pump, WL SVY, POH W/ Bit Survey: 12677' 1° N 28° E 12672.6 ]77.6'S $6.3'W ]2686' 2~ N 24° E ]268].0' 177.4'S 36.]'W Corr Survey O 1266D' as follows ]2615' .76° S~O° E ]26]0.6' 177.6'S 37.0'W 2/10/84 Depth - 12733', SH & Silt, 0'/0 hrs, 9 5/8" CSG ~ 12470', 13,0 # mud 45 VIS 5.0 WL 2000 CL, FIN POH W/ bit - left one cone in ho]e, la.v dn Navldrlll, Test Rams Manifold & valves to ]O00D # & 500 # test flydrL! to 2500 # & 500 # PU & TIH w/ 8t~" 6iobe Bskt JB 9 - 6t~" DCS Jars & 3D Jts 5" HWDP to ]2656', Wash & Ream F/]2656'- 12678' & cou)d not get through bridge e ]267B', POH to ]2351' -CUt DL, POH w/ Globe B.~kt w/ no RCvy, PU & TIH W/ 81~" Blt JB 3 PT 2 - $~" Mone! DL' s STB ] - 61~' Mone] DL XO ]8 - 61~" DCS Jars & 30 Jts 5" HWDP · De~Th - 12733' SH & Si]t, 0'/0 hrs, 9 ~/8" CSG e 1~470'. 12.9 # mud 60 ViS .#.~ L [VU ~Li riff lift - ~11 flV III r/ 12658' - 12733', Circ& Cond Mud, POH - Two Jts off, PU TeIeco & Sim In hole 2/12/84 Deptt~ - 12770', iH & Si]t, 37'/41~ hrs, 9 $/8" CSG 0 12470', 13.0 #mud 64 VIS 4.2 WL 2000 ti, ~sh & Ream F/~2670' - Dr~]] to ]2770' w/ bit ~5 ~D3 made 37'/4~ hrs ~ 40 M 70 RPM 700~ p~p T6 ~ 6], Conn ~ ]2770' & junk on BTM - Attempt to get by ~unk, ROH - lay dn BHA, PU & TIH w/ Globe Pskt JB Fit SUb 9 - 6&" DLS Jars & 30 Jts 5" HWDP, Wash J2' Fill F/)27~' - 12770', Cut 3' of. core S press Incr F/700~ - )ZOO~, ~rvey: 1271~' ~.2· NZg.4E 12707.5' 176.5'S 35.7'~ 12738' 3.5~ N32.2E 12733,5' 175.('5 35.l't DATE _ _D_~IL¥ OPERATION8 SUMMARY II 2/1~1/84 Depth - ]2791', Clay Slit & Sh, 2]'/6 hfs, 9 5/8" Csg ~ ]2470', 13.0# mud 60 VIS 4.8 ffL ~100 Cf, POH ~/ Globe bsk% - Cut DL & Repair DWKS - Rcvd 2' Core w/ no Cone or ~unk, PU ~ TIH w/ 8~" bit N~vldrt]l Flo~t SUB ~ Bent SUB Mone] DC Teleco Orient SUB 3- Monel DL's ~rs 30 - HWDP, W~sh & Re~r,~ 7' to BTM, Dr]g w/ ~46 F-A G 40 i4 13~ RPI.1 ]700~ Dump )/14/84 Depth - 12860', Clay SH & Silt, 69'/19 hrs, 9 5/8" CSG ~ 12470', 13.0# mucl 61 VlS 4.z) WL 2000 C[, Drill to 12800' w/ bit #46 F-2 maUe 90'/25 hfs ~ 40M 130 RPM 1700~I pump, POll Survey: 12,802' 6.]~ N34,3E 12,797.3' 170.9'S 32.]'W 2/15/84 Depth - ]2895', Silt Clay & SH, 35'/81~ hfs, 9 5/8" CSG 0 12470', ]3.0# mud 68 VIS 4.5 WL 2100 CL, FIN POH, PU & TIH w/ 8~" bit ST6 Mortal DC leIeco None] DC STB 2-Mone] DC's Jars 30-5" HWDP, Cut DL & Ream F/JZ770' - ]2860', DkLG w/ bit ~.47 F-2 ~ ,15 M 90 RPM ,~400~ pump 2/16/84 Depth - 13005', Clay SH & Si]t, JlO'/Z21~ hrs, 9 5/8" C56 ~ 12470'. 13.0# mud 63 VIS 4.6WL 2000 CL, Drlg w/ bit ~7 F-~ ~ 50 M 70 RPM 2600# pump Survey: 12894' 9.25· N28.S°E 12888.4' 160.4'5 25.7'W 2/17/84 I:epth - l)rJB5', ~1 Silt & Clay, 80'/I~ hfs, 5/B" C:$G e 1E470', 13.0~ 1~ 64 VIS 4.5 WL Cl., Drill to 13006~ ~/blt ~7 F-~ m~e ~125'/45 ~ e ~0 M 70 I~W4 alSO # puq:) POi -Cut Survey: 115189' 0.5° N)6.5°E 1~)1:12.~' 147.4'5 17.4'W 2/18/84 Depth - 13092', SH Silt & Clay, 7'/]% hfs, 9 5/8" C56 e 12470', 13.0# mud 66 VIS 4.8 WL 2000 CL, FIN POH - Insp BHA one cr~cked PIN on PIN x PIN SUB, Test Rams manifold & valves to lO,OOO# I SO0#, Test Hydril to 5000# & ~00~. PU~ IIH w/8~" bit NavJOrl] f)oat SUB Z" ~nt SUB Mortal DL TeIeco orient SUB 3 - None) DC's ~8-6~" DC's Jars 30-5" HWDP, Wash & Ream 35' to ~lMw/ (' Fill, Drlg w/ bit ~48 ~D3 0 5O 150 RPH 2200~ pump DATE DAILY OPERATIOhd SUMMARY I II I II I · 2/19/84 Depth - ]3120', SH $$lt & Clay, 28'/61~ hfs, 9 5/8" CSG ~ ]2470', ]3.0~ mud 68 V]S 5.0 HL 2000 CL, Drill to 13120' w/ blt ~48 iD3 made 35'/8 hfs ~ 50 M ]80 RPM 2800N pump T3 B4 ~, POH - Lay Dn NavjdrJ]) ~ent SU~ Te]eco ~ Mone] DC's, PU & TIH w/ B 3/8" 14ill & 2 OB's, Mil) on Junk made 2'/2~ hfs, PDH Survey' 13052' a.3~ N3~.6~E )3044.4' )39.7'5 ]].4'W 2/20/84 Depth - 13177', Clay Silt & SH, 57'/]3% hfs, 9 5/8" CSG ~ 1R470', )3.0# mud 60 VIS 5.0 WL 2000 CL, FIN POH W/ 8 3/8" Mill , PU & TIH w/ 8 ~" bit Nay]drill FLT SUB 2° Bent Sub Mone] DC TeIeco orient SUB 2 -Mone] DL's 15- 61~' DL's Jars 30 * 5" HWDP & cut DL, Drlg w/ bit ~9 J-22 ~ 30 M )70 RPM 2500 # pump 2/21/84 Depth - ]3254', Clay Silt & SH, 77'/2111 hfs, 9 5/8" CSG ~ ]2470', 13.0 # Mud 56 VIS 5.1 WL 2000 CL, Dri]] to }3254' w/ bit #49 0-22 made 134'/35 hrs e 30 hi 170 RP~I 2400# pump, POH Survey: 13112' 11,3° N37.5oE 13103.5' ]31.7'5 5.]'W 13143' 12.9° N34.7~E )3)33.8' 126.4'S ].3'W ]3]74' 14,]° N35.0°E 13164.0' ]20.5'5 2.8'E 2/22/84 Depth 13298', 5i]t & SH, 44'/]2 hrs, 9 5/8" CSG ) 1Z470', 13.0# mucl 64 VIS 5.0 WL ZOO0 CL, FIN POH, Lay Dn NavidrJ]l & PU Dynadri]] & Test, Repair remote closing unit, TIH, Drlg w/ bit #50 Hyca]og 90] ) 30 i4 300 RPM 2300# pump Survey: 13204' ]5.5° N32.9'E 13lg3' ll4.1'$ 7.1'E 2/28/84 Depth - ]338}*, Silt & SH, 83'/24 hfs, 9 5/8" CS6 ~ ]2470', }3.0# mud 63 VIS 5.2 WL 2000 CL, Drlg w/ bit #50 Hycalog 901 ) 30 14 300 RPM 2400# pump Survey: 13235' }3267' 16.9° N30.I°E 18.4° i~g.O°E ]9.8° ii28.3':'E 13222.7' )06.7'S ]].6'E )3253.~' 98.3'S ]3282.5' 89.4'S 2}.3'E 2/24/84 Depth - 13442', Silt t &H, 6]'/15 hfs, 0 5/8" C&G 0 12470', I3.OM r,1ud 65ViS 5.4 WL ZOOO CL, Drill to 13442' w/bit MS0 Hycal~ 901 made 1~'/51 hfs ~ 30 M 3OD RPM 24D0~ pump, Testing Bo~. DATE DALLY OPERATIONS SUMMARY - __ I III __- IIII J ~125/84 Depth - 13442', SiJt & SH, 0'/0 hfs, 9 5/8" @ lZ470', '13.0# Inud 63 VIS 5.Z WL ZOO0 CL, Test Ro~}s M~njfoid & valves to 10,000~, tes~ hydrj] to ~SOO~, PU & TZH to 1~800' w/ B~" bit ST8 Teleco 2 moneI DL's 5TB STB 6~" OL 5TB 17 - 6~" DC's aars 30 - S" HUDP, Drop Biks to repair Floor & DEK5 - String Up.elks ~/26/84 Depth 13450' Slit & SH 8'~1t~ hfs, 9 5/8" CSG 0 12420', ]3:0# [,Iud 65 {/]5 .6 WL 2000 CL, FIN repair Rig, TIH %0 ]3089', Ream ~/]3089' - }3}20', Circ & Cond mud . foaming, ream F/]3120' )3442', Drig w/ bit ~5I J-22 ~ 45 M 80 RP[4 2000~ pump Survey: 13415' 24.5* N24.6°[ ]33g3.7' 2/27'/84 Depth - ]3699', Si]t & 5H, 4g'/8 hfs, 9 5/8" CSG to 1349~"w/ bit ~ 5] J-22 made 57' ~5 H &b RPH ZOOO~-pur,~p II 8) GO, PPI, PU w/ 8'b" Bit Nav~drjI) FLT SU~ 2~ B.n~ Sub Monel DC Teleco O~)ent SU9 2 - Hone) DC's Jars 3D - 5" Ht~DP Survey: )3468' 25.)o 1~25.2OE ]3439.)' 30.0'S 50.3'E 2/28/84 Depth - 13607', Silt & SH, 10B'/24 hfs, 9 5/8" CSG {) 12470', ]3.0# mud 62 VI5 5.0 WL 1800 CL, Dr!g w/ B:it ~Z Hyc] gO] ) 40-60 H 400 RPM 2400# pump Survey: ]34~7' 26° N24.B°E J3465.3' 18.7'S 55.6'E 2~/2g/84 Depth - 13693', Silt & SH, 86'/22~ hrs, g $/8" CSG ~ i2470', t3.0# mud 64 VIS $.0 WL 1800 CL, Drill to 13693' w/ bit #52 RR #50 Hycl goJ made 194'/46 hrs g 40 - 60 M 400 RPI~ Z400# Pump Navidrt!l quit, POH Survey: 335Z8' 27.2° N24,10£ 13493' 6.1'$ 6.1.3'E 13559' 28.7° N24.IOE 13520.4' 7.Z'N 67.2'E 13590' 29.7° N;'3.]oE ]3547.4~ 21.1'N 73.3'E 1362Z~ 3~.0° NZ~.7*E 13575' 36~N 79.6'E DATE D.A~.LY OPERATIOI~'~ SUMMARY II I I ......... -- . $/1/84 I)ept. h -. 13724' S:ilt, & SH 31'/Shhr's, 9 5/6" CSG ~ J2470', 13.0# mud 6] ViS $.! WL ]000 CL, FIN POH - Repair Rig, change out Navtdrt]], HyclWaSh 901F/13645'~ 30-~013693, , Drlg w/ blt M 400 RPM 2400# pump :312184 bepth ..- 13820', Silt & SH, 96'/24 hfs, g 5/8" CSG ~ 12470', ]3.OM muU 57 VIS 5.3 WL 1800 CL, Dr)g w/ blt #$3 RR #50 Hyc) 90] ~ 30~40 M . 40D RPM 2700# pu)np Survey- 13653' 32.8° N22.7~E· 13599.6' 50.1'N 85.5'E 13683' 33.8° N21.3°E ]3626.4'. 66.4'N 92,]'E 13714' 35.]° N20.6°E 13652,0' 82.8'N 9B,4'E 8/:3/84 Depth - ]3918', Silt & 5H, 98'/23'/~ hfs. 9 5/8" CSG ~ 12470', 13.0# mud 57 VIS 5.1 WL ]800 CL, dril) to 13gO4' - work pipe free, ~r]g w/ bit #53 ER #50 Hyc) 90] L) 25-35 N 400 RPM 2800# pump Survey' ]3745' 36.20 N)9.g°E 13677,]" gg.7'N ]04.6'E --' ii~O '" i3703" "~' ~'" '" ~' ~ 1377B' ~/.6~ .c,"'r... .~- ~.o ,, ,,,.~ ~ 13809' 39,0~ N20.3~E 13727,9' 136.3'N ]]8,2'E 8/4/84 Depth - ]3958', Silt & SH, 40'/]0 Hfs, 9 5/8" CSG { ]2470', ]3.0# mud 55 VIS 4.9WL ]800 CL, Drill to ~3958' w/ bit # 53 RR //50 Hyc] 90] made 265'/66 hrs ~ 25-35 M 400 RPM 2800# pump, POH - pump OUt F/ 13740' - Il850', TSTG Bope Survey: 1384]' 40.5° N]8.5~E 13752.5' ]55.6'N )25'E 13B72' 41.8~ NXS.5"E ]3775.B' ]74.9'N 13!.4'E 1389]' 42.2" NiT.8"E ]3789.9' ]87'N 135,4'E 3/5/84 .'Depth - 13958'. Slit & SH. 0.'/0 Hfs, 9 5/8" CSG ~ 12470', 13.0# muU 58 VIS 4.8 WL 1800 CL. Test Rams Manifold & Valves to 10000# & $00#. Test Hydrt] to 2500# & 500#, Repa~r DWK5, PU & TIH- cut w/ 81~" bit FLT SUB STB None] DC Te]eco STB Mona] DC STB STB None] DC STB 3 - 61~" OC's STB 3 - 6Y~" DC'$ STB 3,,6Y~" DC's STEi Oars 30 - 5" HNDP to. ]3045', Ream F/}3045' - 13459' DATE I DAILY OPERATIONS IUMMARY ...... I III - - Iii i 3/6/84 Dept.h - ]3978', Silt. & SH, 20'/3Y, hfs, 9 5/8" CSG 0 12470', )3.0# mud 68 VIS 4.4 WL 1800 CL, Ream F/}3459' ~ 13958', Dr]g w/ bit. #54 RR //51 J-22 ~ 50 M 80 RPI.t 2500# pump 3/7/84 Depth - ]4005', Silt & SH, 27'/6% hrs, 9 5/8" CSG @ 12470', ]3.2# mull 68 VIS 4.5 WL )SOO CL, . Drill to ]4005' w/ bit #54 RR #5] J-22 made 47'/]0 'hrs e 50 M 80 RPM 2800# pump 14 B$ GD, C Jrt & Cond mud & Raise WT to 13.2#, POH - !nsp BHA, PU & TIH w/ 8t~" bit turbine Mone] DC SlB le]eco 2 - Mone] DC's STB Jars 30-5" HWDP ! Survey: ]3915' 45~ N]7.S°E ]3807.3' 202.8'N ]40.4'E 3/8/84 Depth - 14073', Silt & SH, 68'/14 hrs, 9 $/6" CSG e 12470', 13.2# mud 66 VIS 4.6 WL 1800 CL, TItt, Ream F/ 13952' - )4005', Drlg w/ bit #55 Hycl 90I ~ 25 Iq 675 RPI~ 3000# Dump Corr Survey ~ 139)5 as follows: ]3~q05' 43.5oWd ]7.8E ]3800.9' 196.7'N 138.5'E Survey' ]3938' 44.5° NIS.5°E ]3823.9' 2]7.9° fl ]45.5'E 8/9/84 Deoth - ]4]79', Silt & SH, ]06'/22 hrs, 9 5/8" CSG e ]2470', }3.2# mud 66 VIS 4.6 WL ]800 CL, LOG w/ MWD GR & Dr)g w/ Bit #55 Hyc] 9D! e 30 M 650 RPM 3300# pump Survey: ]3969' 44.9° N]7.4OE 13846.0' 238.6'N ]52.2'E 13999' 44.6° Nlg.5°E 13867.3' 258.6'N 158.9'E 14032' 45.1° N19.2'£ 13890.7' 280.6'N 156.6'E 14063' 45.3° :N18.8~£ 13912.5' 301.4'N 173.7'£ 8/10/84 Depth - 14311', Silt & SH, 132'/1B hrs, 9 5/8" CSG e 12470', 13.3# mud 65 VIS S.O WL 1800 CL, Log w/ MWD GR & Drlg w/ bSt (/55 Hycl 901 0 30 M 650 RPM 3400# pump Survey: 14095' 45.4° NI8.8°E 13935.0' 322.9'N 181.1'E 14125' 45.3° NI7.8~'E 13956.1' 343.2'N 187.8'E 14157' 45.4° NI8.5°E 13978.6' 364.8'N 194.9'E 14189' 45.5° N17.8°£ 14001.0' 386.5'N 202.0'E DATK · DALLY Q.P.,E..IIATION$ iU_!B.M_AR~ _ - 3/11/84 Survey: Depth - 14422', 5tl% & SH, III'/19.5 hfs, 9 5/8" C56 0 12,470', 15.3# mute S9 VIS 4.6 WL l?O0 CL, L~ v/ ~ ~ t D~lg v/ bl~ ~'5 fl~cl 901 f 30 ~ ~0 R~ ~~ ~p - Teleco ~D qut~ ~o~t~ ~ 14396' 14220' 45.~e #17.4'E14022.7' 407.$'N 208.7'E 14252' 45.6° NIB.SeE14045.0' 429.4'N 215.7'E 8/1~/84 i-, 1 13epth - 14497', 5111 I SH, 75'/;5~ hfs, 9 5/6" CS6 9 12470', 13.2# mud 63 VI5 4.6 WL 2800 CL, T)rlgto 14497' v/ bit g55 Hyc! 901 9 30 K 650 R~ 3400# pump, ~pair Rotary ~ve 3/18/84 to R~=ry Dr~ve, Drill to I4523' w/ bit ~5 Hycl ~} made 518'/9~ hfs ) ~ - ~ M 650 RPM ~~ pu~ - b~t pressure up, Svy - POH - SLM w/ no Corr, Test ~s ~ntfoTd & Valves to l~Og & 50~, test Hydr~ to 25~ & 5~ Survey: ~4370' 45.~0 N]5-see 14~27.0' 510.6'N 240.6'~ 8/14/84 Depth - 14521', Silt I Sfl, O'/0 hfs 9 5/8" CSG t 12470', 13.38 a~ 87 V, 15 4.7 i~ 1700 CL, FIN TSTGBOPE, TXHto ]3~29 - ~ OL, Lay ~ ]6 ~s DPt ~ F/l~t ' 14022', CTS.& C~ ~, Tiff v/~" bit ~B 2 - 6~" ~'s ~lu · - ma u~ s Oars 3o-5" HWOP De~h 14~)' Silt I SH, O'/T) hfs 9 5/B' CSG l 12470i 13.5f Iltucl $6 ¥15 4.4 ~ lBO0 CL, TIH tO 13164' ~am F/13164' - 13126', TIH to 1402~', Ream F/1402~' - 14067', C$~c i Cofld & I~Jse 11t~, limam F/ 14067' - 14438' 8118/84 lDe~24h7~ 14523', Slit & SH, O'/T) hrs, Q 5/8" CSG ', 13.7# mud 66 VIS 4.6 WL 1700 CL, Rea~ Ft144~' * .14523', Ct~c & Cond, ~ o~ 35 J~s, ~am F/13400' . 1423~' DATE II DAILY.. OPERATIONS SUMMARY iii i i~ i , -3/22/84 Depth - 14534', Qtz Phyll to SH, 0'/0 hfs, 9 5/8" CSG e 12470', 13.5# mud 8:3 Vl5 2.8 WL 1600 CL, FIN POH - TOF e 13655', washed ou'c tool Or, PU & TIH w/ 8 %" bit 9 - 6%" DC's Oars 8 - HWDP & 135 Ors 5" ]9.5~ GE E DP, PU & TIH w/ 240 ~s 5" 25.6~ GR E DP - cut DL, Ctrc& Cond mud ~ ~2393 3/23/84 Depth - 14534', ~z Phy]l & SH, 0'/0 hfs, 9 5/8" CSG ~ ]2470', 13.5# mud 83 VIS 2.7 iCL 1600 CL, Ctrc& Cond mud, TIH to Bridge ~ ]2835', Lay Dn 13 ks DP, Ream F/]2835' - 13288o, Oar Stuck Pipe Free, Ream F/]3288' - ]3565' w/ bit. ~9 ,]-2 e 5-30 H 80 RPH 900# pump 3/24/84 MD- 14534' TVD- 14240.4' 9 5/8" CS6 ~ 12470', 13.5# mud 82 VIS 2.8 WL 1600 CL, Ream F/13565' - 13623', Circ Ems up, POH - first 8 stds pul%ed 400,000#, Lay Dn Jars & HWDP, PU & TIH w/ Howco SUEZ Drill RTNR on DP to 12270', set. RTNR & Estb rate e 7.3 BPM ~ 2800#, mix & spot 220 5ks CL "G" + l~ CFR - 2 & .4~ Ha]ad -24 ~ 15.8 PPG, SQZD 210 5ks below RTNR ~ 3 BPM ~ 2500#, Dump lO Sks on RTNR, POH 3 Stds & press to ]200#, POH %0 8200', Mix & spot 400' p!ug F/8200' - 7800' w/ 140 Sks CL "G" + .]~ Hr-7 e 15.8 PPG, PON 3/25/84 MD- 14534' TVD 14240.4' 9 5/8" CSG ~ 12470', POH, Clean Barite out of Cellar, ~T 13 3/8" x 9 5/8" Annulus w/ 150 Sks CL "e" + .75~ CFR - ~ .5~, Halad - 9 ,2% HR - 7 O 15.8 PPG Tall In w/ 933 S~s Pemafrost 0 14,7 PPG 8 BPM 0 1600#, TIH w/ OE DP to 3334', Spot 200' plug F/3334* - 3134' w/ 80 Sks GL "G" neat 0 15.8 PPG, Lay. On Dri]! String 3/26/84 -MD - 14534' TVD - 14240.4' 9 5/8" CSG 0 12470', 13.5# Hud 84 ViS 2.8 WL 1600 CL, Lay On Drill String - TAG hard C~nt O 3068" Prep to set top plug & FIN Lay On Drill String DATE DAILY OPERATIONS SUMMARY - -- II I II I Ill II - BI 3/27/84 14D - 14534' 1'¥D - 14240.4' 9 5/8" CS(; ~ 12470', 13.5~ Iqud 84 VIS 2.8 ~L 1600 CL, FIN Lay ~ Ort ll String, ' Spot 50' Plug at top of CSG F/98' - 46' w/ 20 Sks Permafrost Cmnt ~ 14.7 PPG, ND Bo~ & Well ~ad 3/28/84 Ltd~at~n p:la~t & ~tatep to ~ove, 3/29/84 MD - 14534~ TVD - 14240.4' 9 5/8" CSG ~ 12470', FIN Neld on cap - Plugging Cempl ~ 8:00 AM 3/28/84, clean pits - mud contamtnated with oil & discharge hauled to disposal we1! -Rtg Rlsd g l:O0 AH 3/29/84, RDRT~s - Hau! off rue1 tanks Howco Equpt 3ohnson Flow Test EQPT & mud loggers TENNECO OIL COMPANY PLAN OF OPERATIONS BEAUFORT SEA BLOCK 54 WELL NO. 1 BEAUFORT SEA ALASKA Operator Representative F. W. Lentjes Tenneco Oil Company P. O. Box 2511 Houston, Texas 77001 Phone (713) 757-3480 May 1982 INDEX page 2 PLAN OF OPERATIONS 1. Purpose of Well 2. Proposed Site 3. Site Description 4. Proposed Operational Time Schedule 5. Name and Address of Operator 6. Area Wildlife and Fish 7. Native Settlements 8. Biological Monitoring 9. Environmental Training 10. Access Roads 11. Materials Required 12. Fuel Storage 13. Blowout Prevention Program and Equipment 14. Casing and Cementing Plan 15. Food Service 16. Drilling Rig Camp 17. Fresh Water Treatment 18. Waste Disposal 19. Site Restoration 20. H2S Page 4 4 4 6 7 7 7 8 8 8 9 9 l0 12 13 13 13 14 14 14 ATTACHMENTS A. Geological Prognosis and Program Recommendation to Drill Prospect Summary Well Evaluation B. Drilling Prognosis and Detailed Operational Data Well Procedure Rig Specifications Blowout Prevention Program and Equipment Mud Program 13-3/8" Casing and Cementing Program 9-5/8" Casing and Cementing Program 7" Liner and Cementing Program Testing Program Plug and Abandonment Program Effluent Control Personnel Requirements and Organization C. Spill Prevention, Control and Countermeasure Plan D. Environmental Conditions in the Vicinity of Cross Island page 3 1. Purpose of Well BEAUFORT SEA BLOCK 54 WELL NO. 1 page 4 The Beaufort Sea Block 54 well will be drilled to investigate a potential pinchout trap of Cretaceous age sands on the north flank of the Barrow Arch. A complete testing program will be conducted if necessary to assist in evaluating potential accumulations. 2. Proposed Site The proposed site of the well is to be adjacent to Cross Island. 3. Site Description The drill site, located approximately 15 miles northeast of Prudhoe Bay, will be a gravel pad situated within a cove on the west side of Cross Island. Water depths of six to eight feet may be found in the cove. During the proposed operating season, the area should be covered by landfast ice 5-6' thick. This landfast ice should remain essentially static throughout the winter and we anticipate no ice override of the drill site. However, we plan to install a suitable ice monitoring system and the rig will be positioned somewhat to the lee side of Cross Island so as to provide protection against ice override. page 5 If override becomes a significant concern several optional procedures may be employed to minimize the danger to personnel and equipment. These decisions will be made based on the existing conditions and could include the following: a. Have minimum equipment and personnel ready until protection from override is obtained by natural offshore ridging. b. Induce early offshore ridging by slotting the ice on the seaward side of the Cross Island. c. Provide barrier berms to the seaward side of the rig. d. As a last resort, secure the well and remove personnel and as much equipment as possible. The following Figure 1 shows Cross Island in respect to the surrounding area and Figure 2 shows the location of the drill site in more detail. Additional data on the island and surrounding area is provided in Attachment D, "Environmental Conditions in the Vicinity of Cross Island" by oceanographic Services, Inc. LEASE SALE BOUNDARY I · ,m · ell · · I i i . BEAUFORT ,SEA _ ! MIDWAY ISLANDS ~ L~_..._I "~ CROSS ISLAND '--'--1 '"~,~ %L._ i ., '-' ~.~ .... ' ,,% MCCLURE I . .__ ~ L._ .... " ISLANDS / ~PRUDHOE ~ '". ' )//~"JA / STOCKTON.ISLANDS "/ ·" I. t ....,,,_. · ~ '~ '~ ~) MA6UlRE ISLANDS ~ · .- . ~ ez~==~:~. ~,._ / ~ 1 ~ FLA~CMAN IS. 0 10 I I I MILES FIGURE I -70030 PROPOSED WELL LOCATION · ! o + CROSS ISLAND I I o STATE/FED.BOUNDARY LEASE SALE " "~ ISLAND MILES INDEX MAP _ 70029 + I 0 I ii I 1:25,000' I I MILES 0 1 · ' I I ! I KILOMETERS 54 55 LOCATION 62 63 I I I LATITUDE: 70"29' 30.63" LONGITUDE: 147"58' 56.12" BEAUFORT SEA BLK. 54 APPROXIMATELY 9630' FEL & 5200' FSL DEPTH PROPOSED TOTAL DEPTH 14,200' BLOCK 54 NO. 1 page 6 4. Proposed Operational Time Schedule The timing sequence of the operation is shown in the following Figure 3 and is designed to be compatible with all lease stipulations and attendant ordinances concerning the ecology of the area. Survey work, the transporting of some equipment and supplies will begin after August 15. Such work will be preparing the rig pad, the well cellar, erecting the camp and stockpiling consumables. It is anticipated that the rig can be moved in by barge, or ACV, erected, and drilling started by 1 November 1982. It is expected that the well can be completed and tested ana the rig moved out before deterioration of the ice in April. If such is not the case the well would be temporarily plugged and abandoned, then completed and tested the following year. In the event a two year program is required to complete the well, the rig could be moved off the gravel island, then back to the site the following winter or stacked on location, pending approval of the agencies concerned. TENNECO OIL EXPLORATION AND PRODUCTION BEAUFORT SEA EXPLORATORY WELL 1982 1983 ACTIVITY MAR APR MAYI JUN JUL AUG SEPT OCT NOV DEC JAN FEB MAR -APR RECIEVE NSB PERMIT 4II ARMY CORPS OF ~ ~ ~ ENGRS PERMIT BUILD DRILLING PAD l MOVE RIG & EQUIP. /~ & SUPPLIES DRILL ~~~ , EVALUATE AND TEST / l ~ ~ DEMOBILIZE l'~ ~~ Fi .~ure 3 page 7 5. Name and Address of Operator This well will be operated by' Tenneco Oil Co. P. O. Box 2511 Houston, TX 77001 6. Area Wildlife and Fish Local observations and area studies indicate the proposed winter operation will not hinder the habits of the area wildlife. Note Attachment "D" page 11. 7. Native Settlements No villages are in the vicinity of the proposed location so the drilling operations should not directly affect any of the local population. 8. Biological Monitorin~ Biological populations or habitats that require additional protection, will be monitored and surveyed as directed by the Director of the Division of Minerals & Energy Management. In addition if any area of biological significance should be discovered it will be reported immediately and protected until advice is received from the Director. page 8 9. Environment Training Environmental training required will be conducted in an approved manner. 10. Access Roads Vehicle access to the drilling location will be from the Prudhoe Bay field road system and a sea ice road. The ice road will comprise a cleared route approximately 15 miles long over the shore fast ice. This road will be approximately 30' wide in grounded ice areas, but will be maintained wider to facilitate snow clearing. The rig and all heavy components will be transported by barge or ACV to the island. The ice road will be utilized for rig removal. Utilization of the ice is a proven aspect of Arctic drilling technology. Grounded and ungrounded ice has been utilized for ice roads to supply drilling rigs with great success. page 9 .~.~.. ll. Materials Required To provide a better foundation for the rig and to give additional free board height to the drilling pad, as protection from the ice, approximately llO,000 cubic yards of gravel will be moved in. This will make a drilling location of approximately four acres, 8 feet above sea level. The building of this pad will require an Army Corps. of Engineers Permit. 12. Fuel Storage Fuel will be stored in double walled steel tanks, or single wall with a containment dike of snow and ice. These dikes, based on prior Arctic experience, should be competent during the operating period. Safety precautions, procedures, flow diagrams, etc., will be developed for fuel facilities and spills. Leaks should be non-existent or minimal. All personnel will be trained in safety and procedures to avoid possible mishaps. 13. Blowout Prevention Program and Equipment All operating procedures at the location, whether automated or directly controlled by Company or Contractor personnel, are specifically designed and organized to prevent accidental oil spills. Continued emphasis is page l0 placed on the prevention of spills, but at the same time, contingency, 'emergency clean-up eqiupment and procedures are kept in a state of readiness. The primary method of blowout prevention utilizes hydrostatic pressures exerted by sufficient density drilling mud to prevent undesired flow into the wellbore. In the unlikely event primary well control is lost, the following surface equipment would be utilized for secondary containment of any formation fluid influx into the wellbore. The rig will be equipped with a 20" 2,000 psi working pressure (wp) annular diverter system installed on 80 ft. of 20" H-40 94# conductor pipe while drilling the 17-1/2" surface hole to 2,700'. The diverter lines will be vented in different directions to provide downwind diversion. After running and cementing 13-3/8" 72# L-80 surface casing at 2,700', a blowout preventer (BOPE) consisting of.three 13-5/8" 10,000 psi wp rams, a 13-5/8" lO,O00 psi wp annular preventer, and a two-choke manifold will be installed. After installation of the BOPE, it will be thoroughly tested for leaks using diesel fuel. It will be pressured tested and function tested as required in 20 AAC 25.035. This same procedure will also be followed after setting 9-5/8" casing. Automatic and manual monitoring equipment will be installed to detect any abnormal variation in the mua system and drilling parameters. A mud logging unit, manned by experienced personnel, will be in continuous use while drilling, and it will monitor page 11 formation pressure, hydrocarbon shows, loss or gain in the mud pits, rate 'of penetration, etc. In the event that the well "kicks," the BOPE will be used to shut in the well immediately and confine the pressure within a closed system. The casing program is designed so that any anticipated formation pressures can be shut in at the surface without breaking down the casing seat. The Company representatives assigned to the drill site will have extensive training, together with actual experience in controlling and killing kicks. These personnel will be further supported by well-trained drilling crews approved by the Company. Pressure resulting from a kick will be circulated out using the balanced bottom hole pressure method, and the well will be restored to its normal operating condition. Tenneco Oil Company is a member of the Alaska Beaufort Sea Oilspill Response Body (ABSORB) so in the unlikely event that secondary control of the well is lost and premature well flow occurs, the full scope of the ABSORB organization and equipment is provided for control and clean-up purposes. Our Spill Contingency Plan is provided as Attachment 2. In addition to the ABSORB response to a blowout, well kill procedures will be initiated. These are highly specialized and designed to the conditions of the blowout. Capping and killing procedures are usually successful but directional relief wells are frequently started as soon as possible as an page 12 additional assurance of successfully regaining well control. A 'number of other drilling rigs on the North Slope would be available for such and emergency well if this were necessary. 14. Casin9 Program The casing and cementing program is briefly shown below. More detail is provided in the Detailed Operational Plan, Attachment B. HOLE SIZE SHOE AT SIZE WT. (LBS.) GRADE RANGE 26" 80' G.L. 20" 94 H 40 3 17-1/2" 2,700' K.B. 13-3/8" 72 L 80 3 12-1/4" 11,000' K.B. 9-5/8" 53.5 SOO 95 3 8-3/8" 14,200' K.B. 7" 32 SOO 95 3 If liner is run, it should have a minimum overlap of 200'. The hanger should be run with tie back sleeve. THREAD Welded Buttress Buttress Buttress CEMENTING PROGRAM 1. 20 Casing ® 0 13-3/8" Casing Float Shoe Tag in Float Collar 12 Centralizers 9-5/8" Casing F1 oat Shoe F1 oat Collar Estimate 300 Sacks Permafrost Cement. Estimate 3,300 Sacks Permafrost Cement (to surface) Use 5" drill pipe stringer or Interstring Method. 37 Centralizers D.V. at 2,700' F.O.C. at 1,500' page 13 First...Stage Second stage Third .Sta.ge 50 bbls. water preflush and 1,454 sacks. Class G. Permafrost C. mixed at 15.7 ppg. (200 Sacks) Circulate through F.O.C. with 300 bbls. Arctic Pack. (To Surface) 4. Cement 7" liner as required by logs and evaluations, or by hole conditions. , 15. Food Service The drilling contractor will be responsible for insuring that the food and potable water is adequate, handled and prepared properly. Cleanliness will be maintained in kitchen and dining facilities in compliance with all rules of "Good Housekeeping". 16. Drilling Rig Camp The camp area will be composed of steel modular structures and will be sufficient to provide safety, comfort and convenience for all personnel. 17. Location of Fresh Water and Treatment Water for the camp and rig will be provided from fresh water generator units or snow melt devices on the rig. Alternatively, on shore sources may be used. page 14 ~-~-'-~ 18. Waste Disposal Burnable wastes will be disposed of in an incinerator at location, and Other waste material will be transported to an approved location on land for disposal. 19. Site Restoration The well may have to be suspended and reentered later if problems force the rig to be removed prior to adequate evaluation or testing. However, upon final completion of all operations, tne well will be plugged and abandoned. This will be done in compliance with all appropriate regulations in force at that time and will include removing of all casing and/or well head material to below ground level. The gravel drilling pad that was constructed will become a permanent part of Cross Island. It will be windrowed and seeded under the direction of the Department of Fish and Game so as to enhance that habitat of the eider ducks and other wild-fowl species that utilize this island as a nesting ground in the summer months. 20. H2S The probability of encountering H2S in the drilling of this well is considered to be minimal. However, H2S monitoring systems will be page 15 provided and maintained by the mud logging unit so that in the unlikely event H2S is encountered, it will be detected and proper precautions can be initiated. page 16 Attachment A GEOLOGICAL PROGNOSIS AND PROGRAM May 1982 page 17 RECOMMENDATION TO DRILL BEAUFORT SEA BLOCK 54 WELL NO. 1 Operator: Tenneco Oil Company Location: Beaufort Sea Offshore Block 54 Approximately 9,630' FEL & 5,200' FSL Distance from Shore: 15 miles northeast of Arco East Dock 12 miles northeast of Niakuk Islands 12 miles north of Sag Delta area Adjacent Leaseholders: (See Figure 4) Tenneco to East anO West; /~noco to South and Southwest; Union to Southeast; open to North, Northeast and Northwest Proposed TD: 14,200' This should be adequate to penetrate all the prospective sedimentary section above economic basement and allow sufficient penetration of the pre-Mississippian to identify and log it. they - Cities Exxon-Unical Gulf se.s66so% · -----.-- ..---.., · _ - - : 74.13 Am·rod· · ~ ~ Morolhon 0 " Uflical ~ ..~ ~, 0.*j ' EKxon-Arco I I~,.e7% !Tenneco !~:~nneco Ill' '1' -- -- .~Z'1'- ----' Il liamDIItOn I / ' I. !! LArco :o ~ Unicol / ! BP-Sohio 4 ssi / I I II I 1,0·SO. · $ I~ I~te.O00 Exxon-Arco I I I I I It,.,ze. ooo I ~.,Z~ooo Ilzs.~4e I-XXOfl I:xxofl ,, I I I I LM..o J 6,14e,000.,J~004s,ooo Phi Ilips ;12.353.000 ll'~ - Exxon I I / I I I · : '"~ ' ° Ij4,100.O00 ' 'Berglund "(' il,BOO,14· Ile.,4s,ooo I~ .... ":."..:i': .... Arco ------.#-1 '"" '- ' Mobil-Chev .kM. obil-Chev .J ~ II~berglund :'~" ; . ; , ,., ' ' . "" '"" .... "" · · . '. ~ ", 4e.etOSl% 41 I · , " ,' ' · '" I ls.ot~.ooo I ~'* :: l · ... ·.' '.::'.;:. ', :"' ""', ..,,o.,o, , Mob, · ' '0 ,- w..;/, ;.. · ·ip l_" I Arco ihell Il,·to,o·· Phillips .® __O·'.O.· , ' · ··.q '.~. ·· I® ~ ~ Murphy 'lMobll · iPhiI Ch.e.v · Ilt, l~4,~s , .., · _ e!® - ee,.e., ·ee ~ I , I '_'' ' ' '' .'..... J' : · · :. ...e. · · ee · .e -e · · · J · 1,.os4.¢oo l.o,.ooo .z,z.ooo I I · '- e- ee'~ ,. "· · · · ' Shell-Murphy y J5.,~$o,~oo · F..j .. Mobil .'.', ; · '..'e · "1 :... TENNECO OIL COMPANY FRONTIER PROJECTS I NORTHERN ALASKA . BEAUFORT SEA BEAUFORT SEA LOCATION MAP Mobil a7.~4~ , exlon- Oerglund Fi gure 4 page 18 Elevation: GL 8' (+) KB: 38' (+) Si gn i fi cant Ne ar by We 11 s The key well is the Sohio Reindeer Island Stratigraphic Test No. l, a 14,352' MD (13,645') TVD) basement test drilled ten miles to the west in 1979. Tenneco was one of the participants in this hole and we have all of the well information. Sohio drilled four directional holes and one straight hole in the vicinity of the Niakuk Islands located 9 to ll miles to the southwest. Tenneco has varying amounts of information on most of these wells but knows nothing about the #3 Niakuk which was drilled from an ice pad in 1969. In addition, the Amoco Foggy Island Bay State Unit 1 in Section 19-11N-17E, an 11,202' Mississippian test, about 14 miles due South and the Exxon #1 Alaska State A, a 14,206' basement test drilled on Flaxman Island about 38 miles to the Southeast, are considered important reference wells for this prospect. page 19 Rig' To be negotiated. Est. Spud Date' November l, 1982 Est. Days to Completion' 130 Est. Date of Demob and Clearing Location' March 31, 1983 page 20 PROSPECT SUMMARY Drill.in~ Hazards: A. Permafrost Some permafrost may be encountered. Its depth, thickness and nature is difficult to predict. In a 20 hole core drilling program conducted by the U.S.G.S. in February and march of 1979 within the lease sale area, permafrost was encountered in all but five holes. The deepest of those five only went to 140 feet. The shallowest permafrost was encountered at 46 feet and the maximum amount penetrated was 261 feet, the bit still in permafrost at TD. In the R.I.S.T. well, the actual amount of permafrost was difficult to determine but its base could be picked at 1,030' KB. The Amoco well drilling on No Name Island about 13,000 feet to the southeast of this location is reported to have no permafrost. Gas could be trapped below the permafrost zone, if it exists, or gas hydrates could also be present. If gas hydrates are encountered some free gas, either as pockets within the hydrate zone, or trapped beneath page 21 it would be anticipated. These have not presented any particular problems elsewhere in the area. B. Abnormal Pressure Reference to drilling histories and the plotting of the resistivities of shales encountered in area wells suggest the possibility that some higher than normal pressures could be encountered. The most likely zones for geopressures to occur are in the deep-water shales in he basal part of the Seabee Formation and below the Neocomian unconformity. These would be expected from about 10,555' to 12,650' and below 13,150', respectively. Most wells have been successfully drilled with about 10 ppg muU. The maximum known mud weight used in the area was at the Exxon #1 Alaska State A on Flaxman Island where 15.3 ppg was employed. WELL EVALUATION A. Mud Logging Continuous mud logging should be started from below the 20" casing show and continued to total depth. In addition to the standard sample logging, gas detection and pore pressure services, hydrogen sulphide (H2S) and carbon dioxide (C02) detection systems should be provided as well as continuous automatic mud weighing systems. page 22 B. Coring 1. Conventional Cores Conventional cores will be taken only if hole conditions and time permit. No coring is anticipated above 12,650'. Below that point it will be at the discretion of the well site geologist and only if potential reservoir rocks are encountered. 2. Sidewall Cores Numerous sidewall cores are anticipated, primarily for paleontologic and reservoir information and also for geochemical purposes. Coring points will be determined by the wellsite geologist. Wireline Lo. ggin~: Logging Aprox. LSS FDC-CNL Run Depth S.WC DIL-S GR-C GR-C HDT Velocity #1 Prior to 13-3/8" csg. 2700' - X X #2 Correlation 7000' P X #3 Prior to 9-5/8" csg. llO00' X X X X X #4 TD 14200' X X X X X X Schlumberger will do the wireline logging. Additional log runs may be made if abnormal pressure, adverse hole conditions or other circumstances warrant doing so. page 23 Formation Testing: A. Wireline Testing The Schlumberger Repeat Fromation Tester (RFT) may be used to determine possible hydrocarbon zones or potential reservoirs where other data is lacking or inconclusive. The wellsite geologist will determine such test points, to be based on the mud log, drilling time, wireline logs or other data. B. Drillstem Testing No open hole DSTs are anticipated. If testing is warranted a 7" liner will be run for this purpose. .Drilling Cuttings' A. Dry Cuttings Samples will be collected every 30' from below the 20" casing s~oe to approximately 10,000'. Ten foot intervals will be sampled below lO,O00'. page 24 B. Wet Cuttings Wet cuttings should be collected at the same intervals as the dry cuttings but should only be lightly rinsed and placed in plastic bags. C. Canned Geochemical Samples These samples should be collected at 100' intervals from below the 20" conductor pipe to TD. They should be placed directly in a quart container, sprayed with Bactericide "Zephrin Chloride", ana sealed. Geochemical Evaluation' Tenneco will evaluate the source rock and thermal maturity of the section. Routine determination of total organic carbon, hydrocarbon solubles, vitrinite reflectance and kerogen coloration will be carried out. Canned samples will be available for head-space gas anlysis or carbon isotope work. B. iostrati 9raphy' Biostratigraphic work will be contracted out. Contractor will be determined at a later date. The unwashed samples will be available for biostrati§raphic information ano sidewall cores will be taken for this purpose with the number and location to be decided by the wellsite geologist. page 25 Geological Supervision: The Tenneco wellsite geologist will be responsible for all geologic functions during drilling of the well. He will be responsible for daily geologic reporting to the Houston office. A coordinator for all geologic evauation of the well will be located in Houston. Security: Only Tenneco and authorized personnel are to be admitted into the mud logging and wireline logging units at all times. All logs (original and copies) are to be secured at all times and unwanted copies are to be destroyed. The radio-room is to be cleared of all non-Tenneco personnel during the times of morning reports or reporting of confidential matters to the Houston office. All distribution of geologic well data is to be handled out of the Houston office. Only authorized personnel will be allowed on the drillfloor when cores are pulled and laid out on the drillfloor. This will also apply when wireline formation test tools are being.unloaded. Authorized personnel page 26 will be Tenneco personnel, contractors' personnel working on the dri'llfloor, and all other persons authorized by the Tenneco operations supervisor. Supp1 ementary Notes' Specific procedures will be given as to the disposition of samples, shipping or transmittal of data and samples at a later date. page 27 Attachment B DRILLING PROGNOSIS AND DETAILED OPERATIONAL DATA May, 1982 page 28 ~-'~ Prognosis to Drill Lease: Beaufort Sea Block 54 District: Frontier Exploration Projected Depth: 14,200' Location: Beaufort Sea Offshore tract Block 54 approximately 9,630' FEL & 5,200' FSL Well No.: 1 Area: Alaska-Beaufort Sea Est. Elevation: 38' KB Ri~: Arctic Type Rig Operational Procedure: 1. As soon as all permit are received, stake the well location and begin construction of gravel pad in late August or early September. 2. Construct the drilling pad approximately as in the following Figure A- B-1. The precise configuration of the drilling pad will be determined by the drilling contractor as a function of his chosen deployment of the rig and its supporting units. 3. After September 15, 1982, begin moving the rig, supporting equipment and consumables to the island by barge or ACV. Erect the rig and camp, dig well head cellar and set conductor pipe in preparation for commencement of drilling on November 1, 1982. 4. As soon as practical clear right of way for ice road to be used for supply, emergency and rig removal at the conclusion of the well program. 3:1 BACKSLOPE 650' APPROX. 110,000 CU YDS GRAVEL 4.O ACRES (TO ELEV. 08.00') mm mm mm mm em mm mmm emro mmmmmm mm mm mm ] Tenneco Oil Exploration and Production BEAUFORT SEA BLOCK 54 WELL NO. 1 GRAVEL PAD Figure A-B-1 page 29 5. Install 20" diverter system as directed in 20 AAC 25.035 (b)(1). 6. Drill 17 1/2" hole to 2,700' and log. 7. Run 13-3/8" casing and cement to surface. Install 13-5/8" starting head and BOP. Test per 20 AAC 25.035 (d)(1). Install wear bushing. 8. Drill 50' of formation and test to leak off. 9. Drill 12 1/4" hole to ll,O00' and log. Note: the 12 1/4" hole may be terminated at points above or below ll,O00' as dictated by formations encountered and hole conditions. 10. Run 9-5/8" casing and cement in two stages. Protect permafrost with Arctic pack. ll. Install lO,O00# BOPE and test per 20 AAC 25.035 (d)(1). Install wear bushing. 12. Drill 50' of 8-3/8" hole and run leak off test. 13. Drill 8-3/8" hole to 14,200' and log. 14. Run liner if required 15. Test well if required page 30 16. Plug and abandon 17. Demobilize 18. Windrow gravel pad and seed as per instructions from the Fish and Game Department. Notes: 1. Directional surveys will be run as per 20 AAC 25.050 (a) 2. It is anticipated the drilling and evaluation can be done in one season. However, an unanticipated delay would necessitate a carryover to the following year. Such eventualities will be planned for and abandonment procedures will be designed to allow re-entry the following season if necessary. 3. The following Figure A-B-2 shows an idealized time schedule. 4. Figure A-B-3 is a well diagram showing casing points, etc. 5. Figure A-B-4 is the anticipated drilling and testing time curve. TENNECO OIL EXPLORATION AND PRODUCTION BEAUFORT SEA EXPLORATORY WELL II 1982 1983 ACTIVITY , MAR APR MAY JUN JUL AUG SEPT OCT NOV DEC JAN FEB MAR -APR RECIEVE NSB PERMIT ARMY CORPS OF ENGRS PERMIT BUILD DRILLING PAD MOVE RIG & EQUIP. & SUPPLIES DRILL EVALUATE AND TEST DEMOBILIZE ~"~ Figure A-B-2 ARCTIC PACK 1500'-SURFACE BEAUFORT SEA WELLBORE SKETCH BEAUFORT SEA BLOCK 54, WELL NO. ¶ ISLAND GROUND LEVEL 20" 94# @ 80' CMTD. TO SURFACE CEMENT 2700' to 2100' 17-112" HOLE APP. 3300 SX PERMAFROST CEMENT. 13-318" 72# L-80 BUTTRESS CASING SET AT 2700' 12-114" HOLE CEMENT 9-5~8" CASING UP TO APPROXIMATELY 6000' 7" LINER TOP 200' INSIDE 9-518" 9-518" 53.5# SOO-95 BUTTRESS CASING SET AT 11,000' 8-3~8" HOLE 7" 32# SOO-95 T.D. 14.200' Figure A-B-3 BEAUFORT SEA BLOCK 54' WELL NO. 1 2000 LOG AND RUN 13-318" CASING TO 2700' 4000 6000 8000 10,000, 12,000 LOG AND RUN 9-5~8" CASING TO 11,000' 14,000 16,000 I 20 I I I I -I 40 60 80 100 120 DAYS 7" LINER TO 14,200' IF REQUIRED LOG TEST AND ABANDON I '1 I 140 160 180 Fi gure A-B-4 page 31 RIG SPECIFICATIONS Although a rig for this well is not under contract at this time, it will be a rig specifically designed for The Arctic and similar to the general rig description which follows' Mast & Substructure' Dreco; M14225-1330; 1,300,000# GNC; 900,000# casing capacity; 500,000# set back; 500 ton, seven 60" x 1-3/8" sheave crown block. Drawworks: Oilwell; E2000, 2000 HP, Parkersburg V-200 brake, driven by two 1000 intermittent and 900 brake HP traction motors. Motors, manual and hydramatic brake cooling system totally enclosed with heat salvaged and flooded into the substructure. Drilling Pump~: Oil-well; two A-1700, 1700 HP, triplex single acting pumps, each driven by two 900 brake HP traction motors. Pumps are equipped with 5000 psi wp discharge manifold to kill line and stand pipe system, Demco shear relief valves, TOTCO mud gauges, Hydril pulsation dampeners and suctions super charged. Traveling Block' Oil well; B-500 ton, six 60" x 1-3/8" sheaves. Hook' BJ, 5500, 500 ton, dynaplex, automatic positioner hook. page 32 Swivel' Oilwell; PC-500, 500 ton, goose neck taped for 2" free point access. Rotary Table' Oilwell; B-375, 37-1/2" opening, driven from drawworks. Prime Movers: Caterpillar; diesels, five D-398, 900 HP (sea level, 1200 RPM) driving five 700 KW AC generators with a power factor of .70, resulting in a continuous total of 3375 KW or 4500 HP; two Caterpillar diesel 3304 "cold start" and auxiliary generators with residental spark arresting mufflers. Auxiliary is portable and equipped with six 1200 AMP flood lights. Rigdrive- General Electric; AC/DC SCR system and motor control distribution center, all pressurized and atmospheric controlled with six GE 752 DC motors which are controlled from the driller's console position. Mud Tank System: 1000 BBL active tanks, 350 BBL liquid mud (or water) storage, 80 BBL independent "trip tank" with separate pump; tank baffles, skimmers, bypass pit, arctic non-freeze bottom cleanout jets, all closed loop system, and built in mud check lab with Baroid Field mud check equipment. Mud Processin9 Equipment' Brandt dual double shale separators; two Demco 1000 GPM desanders; two Brandt "combination" 400 GPM mud cleaners and/or page 33 can be used as desilters; Pioneer Mark I 100 GPM centrifuge with four feed-pumps; two Pioneer SIDEWINDER cyclonic mud blenders; one 5 HP chemical blender with forced discharge; six Brandt 5 HP mud agitators, submerged mud guns; seven Gallagher 4"x6"x16" impaller centrifugal charging and processing pumps driven by 75 HP AC motors. Floor Tools: VARCO; iron roughneck; power slips; 5" and 3-1/2" hand slips; Kelly spinner; Master and Kelly bushings; BJ 350 ton elevator bails; BJ 350 ton 5" & 3 1/2" elevators; three sets type DB tongs; two sets type C tongs; Drilco easy torque; Mathey 20,000' hydraulic wireline unit; lO,O00# air winch; two 5000# derrick booms with 5000# air winches; 7500' 1-3/8" wire line with power spool; Hercules dead line anchor; two covered personnel elevators - one GL to drillers doghouse and one casing walk to DK floor; OK mud box with drain to flow-line; 4" casing fill line; casing stabbing board; automatic drain heateO DP rack; snub posts and lines; facility built into rotary beams to install and service a rental automatic pipe wiper, all laid out to reduce accidents, connection and trip time and personnel fatigue. NOTE: No drilling of rat or mouse hole is required due to floor height. Water & Fuel Storage: 1000 BBL total water storage (doesn't include 350 BBL with mud system that can be utilized for water storage on big cement jobs); lO00 BBL total diesel storage with double walls to avoid necessity of building and lining burms; 1000 gasoline tank for pickups; 250 gallon forklift portable diesel fuel tank for fueling machinery/trucks on rig moves. page 3a Instrumentation: One TOTCO drillers console with gauges and indicators for weight, rotary torque, RPM, tong torque, easy torque, iron roughneck, o flow-show, PVT, hole-fill, SPM, gain and loss; one TOTCO eight pen record . system for weight, trip time, penetration, rotary torque, pump pressure & SPM for #1 and #2 pump and PVT; one TOTCO circular record for trip tank; one TOTCO survey drift indicator barrel with one 7o and one 14° drift instrument . . can be run on wire line, dropped and retrieved on trip and/or retrieved with sinker bars and mouse trap with wire-qine unit. Safety & Communications: 16 AD open all station intercoms; 6 general monitor #520 gas detectors; 3 RCA closed circuit TV screens (doghouse, toolpusher and company man office} with 3 cameras (shakerroom, mud mixing room, pump room and derrick floor); MSA FIRST-AID KIT; MSA evacuation basket litters with blankets; one Ansul LT 150# all purpose wheel mounted fire extinguisher; 40 Ansul LT 30# all purpose hand fire extinguishers; Geronimo derrickman safety escape; Geronimo derrickman climber; S&S Crown-o-Matic protection device; and 6 MSA gas masks with oxygen tanks. Air Compressors & Heating: Two Sullair series 12 H-5AO single stage rotary screw air compressors driven by 50 HP AC motors, rated 200 CFM at 125 psi wp; two Keewanee 100 HP boilers, automatic diesel fired and water level control; 20 Stardozik Ruffneck steam heaters driven by 1/2 HP AC motors; two Tioga 3,500,000 BTU salvaged from the D-398 prime mover cooling system {creating 1,500,000 BTU each under 75% load) and force distributed into the rig housing with additional fans to distribute heat turbulance in large areas such as the substructure and rack house complex. page 3 5 Housing,.Windwalls, Tubular Machine & Shop: All outside perimeters of the rig (including the pipe rack house, walk and ramp) is insulated from ground level to i0' above the derrick floor with windwalls extended on up to 50' high around the derrick floor. No drilling personnel have to go outside the protected heated rig after going on tour. There is a doghouse mounted on each side of the substructure, one for spare subs and tools and one for drillers and company mens {separate) offices. An easy access material ramp from ground level to the derrick floor for handling of casing tools, bits, stabilizers and other tools. All housing is modular design with vee blocks for correct and easy alignment when setting in. After set in . . . union facing union and plug are hooked up while personnel are protected from arctic weather with plenty of lights in order to see what they are doing. The pipe rackhouse includes an automatic hydraulic pick-up and lay-down machine powered by a 75 HP motor and can handle up to 10" drill collars and 20" casing up to 50' lengths. 12,000' of 9-5/8" casing can be racked in this house and still lay down {or stand back in mast} the 5" drill string when ready to run casing. Included with the rig is an insulated heated shop building for a combination, but separate, mechanic, electrician and welder areas. Overall size is 36' wide x 48' long x 17' high with four man doors and 16' wide x 16' high vehicle door. The shop is equipped with work benches, storage, drill press, anvils, vises, grinders, 600 AMP electric welder, cutting torch and 5 ton overhead electric crane. Also.included with the shop is a portable 400 AMP diesel welding machine and cutting assembly that will reach the crown of the mast. page 36 Drill Pipe' Main string consists of 20,000' of 5" Oilwell IEU grade "E" tube, with HTCO 5" extra hole tool joints, 6-1/2" OD with smooth x hard facing and AMF TK-34 internal plastic coat. lO,O00' is lg.50# rated 396,000 tensile and lO,O00' is 25.60# rated 530,000 tensile, all equipped with stamped steel thread protectors. Auxillar~ string consists of 12,000' of 3-1/2" Oilwell IEU grade "E" tube, 15.50# rated 323,000# tensile strength with HTCO 3-1/2" IF tool joints, 4-3/4" OD with stamped steel thread protectors. Down-~ole Tools: "All drill collars are spiraled and grooved for elevators and slips, recessed fine particular hard bands, all tool joints on all tools are stress relieved and equipped with cast steel thread protectors." 18 - Drilco 8" OD DC with 6-5/8" H-gO box to pin 18 - Drilco 6-1/2" OD DC with 4-1/2" X-hole box to pin 12 - Drilco 6-1/2" OD DC with 3-1/2" IF box to pin 35 - Drilco 5" 5 - Drilco 5" HWDP with 5" extra hole tool joints HWDP pup joints 5', 10', 15', 20' & 25' lengths 1 - Drilco 5-1/4" Hex Kelly 4-1/2" IF pin down 1 - Drilco 4-1/4" Hex Kelly 3-1/2" IF pin down page 37 6 - Drilco 8" DC pick-up subs 6 - Drilco 6-1/2" DC pick-up subs 4 - Drilco 3 1/2" DC pick-up subs Plus BJ Zip-Handling bails and elevators 1 - 8: DC to bit junk basket 1 - 6-1/2" DC to bit junk basket 1 - 4-3/4" DC to bit junk basket 1 - lot of subs for above contractor equipment Blow-Out Prevention Equipme.nt: Diverter: One hydril 20" - 2000 psi wp annular BOP with flanged bottom and studded top with 10-3/4" diverter system, diverter opens to reserve pit when 20" annular is closed. Main stack- 1 - Hydril 13-5/8" - 5000 psi wp annular BOP with studded top and hub-clamp bottom hub-clamp connections, fast change locking bonnet. 3 - Hydril 13-5/8" - lO,O00 psi wp single gate BOPs with top and bottom hub-clamp connections, each with one 3" flanged side outlet. Ram sizes with rig; 1 set of 2-7/8", 3-1/2", 4-1/2" 2 sets of 5"; 1 set of 7", 9-5/8"; blinds and shears. NOTE: Shear rams can be used with either of the above three gates. All gates equipped with automatic-ram-locks. page 3 8 1 - Shaffer drilling spool, 13-5/8" - lO,O00 psi wp, top and bottom hub-clamp o o connections with one 3" flanged side' outlet equipped with two 3" lO,O00 psi wp flanged valves (one hydraulic) for kill line and one 4" flanged side outlet with two 4" - lO,O00 psi wp valves (one Hydraulic) for line to choke assembly. 1 - Unitized 10,000 psi wp choke assembly consisting of 4" straight through, two 3" Cameron automatic adjustable chokes, one 3" Cameron manual adjustable choke with two 10,000 psi wp valves up stream of each above function with drillers remote cont?~ol console (located just inside driller doghouse) and proper gauges and sensors at the manifold with 5000 psi wp valves with 3" outlet to DRECO primary degasser-shaker box and Drilco seaflow degasser, or 3" outlet to flare pit and/or test tanks, or 4" straight through to reserve pit. Covered mud tanks are equipped with six 1200 CFM fans which can exhaust all mud tank house air in two minutes or less. 1 - NL Koomey seven station, 3000 psi wp BOP accumulator control system, with 20-11 gallon accumlator bottles (220 gal. capacity), 280 gallon fluid reservoir, 20 HP electric triplex pump at 8.7 GPM at 3000 psi, two air pumps 3.5 GPM each at 3000 psi as first back-up, 6-275 CF nitrogen bottles as second back-up with remote electric control console behind driller on derrick floor. 1 - National liquid blast lO,O00 psi wp single acting triplex test pump driven by 50 HP AC motor complete with tank, gauges, by-pass valves, manifold, hoses and controls. page 39 1 - Hydril lO,O00 psi upper Kelly cock. 1 - each Hydril lO,O00 psi 3-1/2" & 5" lower Kelly cock. 1 - each Hydril lO,O00 psi 3-1/2" & 5" floor valves. 1 - each Flocon lO,O00 psi 3-1/2" & 5" inside BOP. 1 - lot Baker floats for DC float subs. 1 - Substructure 50 ton overhead BOP handling system. Rollin9 Stock & Miscellaneous' 1 - Caterpillar 966 front-end loader, arctic equipped, double heaters, with snow bucket, fork extensions and personnel basket. 2 - Crewcab pickups, arctic equipped, double heaters, equipped with 4 doors and 4 wheel drive. 1 - Caterpillar 3304 auxiliary generator, 90 KW, installed in insulated house and equipped with six 12 AMP flood lights for use during rig-up-down. 1 - Lot of slings, spreader bars, racks for nippling-up, rigging-up and down and moving. 1 - Complete set of unitized 6" thick steel rimmed wooden rig mats both for rig and camp. page 40 Camp - Sixty Bed: The camp is totally self-sufficient with systems and facilities such as beds, kitchen, dining room; walk-in dry food, cooler, freezer storage; baths, laundry, portable water storage, water purification, waste disposal, incineration, locker change room, recreation and coffee day-room which are designed for sixty inhabitants. All sleeping quarters and most of the halls and recreation rooms are carpeted for warmth, quietness and house slipper comfort throughout. The outside shell and main structure is manufactured of steel for strength and fire proofing. All of the camp is heavily insulated (similar to walk-in freezer) for comfort in the coldest seasons and to reduce heating fuel costs. The entire camp is totally electric with power supplied by two Caterpillar D353 300 KW Ac generators with residental mufflers for quietness. The camp is equipped with automatic fire extinguishers over the kitchen stove, 10 Ansul LT 30# hand fire extinguishers, on Ansul LT 150# wheel mounted fire extinguisher, fire hoses/reels and heat/smoke detectors with alarms and manual fire alarms. The company representative, toolpusher and head cook have private baths in their quarters. Straight across the hall from the company representative and toolpusher are private offices over looking the yard or camp parking area. The geologist quarters is equipped with a page 41 laboratory (sink, two burner electric plate, exhaust fans and desk) and pri'vate bath. The camp meets or exceeds all Federal and State codes, rules and regulations. BLOWOUT PREVENTION PROGRAM AND EQUIPMENT All operating procedures at the location, whether automated or directly controlled by Company or Contractor personnel, are specifically designed and organized to prevent a loss of well control. Continued emphasis is placed on well control, but at the same time, contingency and emergency clean-up equipment and procedures are kept in a state of readiness. The primary method of blowout prevention utilizes hydrostatic pressures exerted by sufficient density drilling mud to prevent undesired flow into the wellbore. In the unlikely event primary well control is lost, the following surface equipment would be utilized for secondary containment of formation fluid influx into the wellbore. The rig will be equipped with a 20" 2000 psi wp annular diverter system installed on 80 ft. of 20" H-40 94# conductor pipe while drilling the 17-1/2" surface hole to 2700' (see Figure A-B-5). The 10-3/4" diverter line will be connected to storage tanks or bermed areas capable of FLOWLINE 10-314" ELECTRIC CONTROL BUTTERFLY~.~__ BELL NIPPLE t' 20" 2000 PSI ANNULAR PREVENTOR DRILLING SPOOL DIVERTER LINE 20~s CONDUCTOR PIPE DIVERTER LINES HAVE OPPOSITE DIRECTION DISCHARGE CAPABILITY Figure A-B-5- page 42 holding the surface hole volume. After running and cementing 13-3/8" 72# L-80 surface casing at 2700', a blowout preventer (BOPE) consisting of three 13-5/8" lO,000 psi wp rams, a 13-5/8" 10,000 psi wp annular preventer, and a two-choke manifold will be installed (see Figure A-B-6). After installation of the BOPE, it will be thoroughly tested for leaks using diesel fuel. It will be tested at least weekly thereafter, as well as prior to drilling out casing shoes. Operational tests and crew drills will be conducted daily. This same procedure will also be followed after setting 9-5/8" casing. Primary well control will be maintained by over-balancing formation pressure with a column of drilling fluid. Automatic and manual monitoring equipment will be installed to detect any abnormal variation in the mud system and drilling parameters. A mud logging unit, manned by experienced personnel, will be in continuous use while drilling, and it will monitor formation pressure, hydrocarbon shows, and loss or gain in the mud pits as well as other downhole conditions. In the event that the well "kicks," the BOPE will be used to shut in the well and confine the pressure within a closed system. The casing program is designed so any anticipated formation pressures can be shut in at the surface without breaking down the casing shoe. The Company representatives assigned to the drill site will have extensive training, together with actual experience in controlling anO killing kicks. These B.O.P. STACK CONFIGURATION 1 3-518" TRIPLE RAM STACK ' 10,000 PS! WP ANNULAR PREVENTER ! ) PIPE RAMS BLIND RAMS 2" KILL CHECK GATE GATE DRILLING SPOOL 4" CHOKE GATE H.C.R. PIPE RAMS FIGURE A-B-6 page 43 personnel will be further supported by well-trained drilling crews approved by the Company. Pressure resulting from a kick will be circulated out using the balanced bottom hole pressure method, and the well will be restored to its normal operating condition. Following are hydraulic installation instructions and diverter procedures. page 44 HYDRAULIC EQUIPMENT SPECIFICATIONS AND INSTALLATION INSTRUCTIONS 1. All connections shall be flanged or Cameron clamp of comparable rating. 2. All flanges to be API 6B or 6BX and ring gaskets shall be API steel RX or BX. 3. BOP stack shall be braced to sub-base or suitable support by turnbuckled lines or rods. (No rigid connections.) 4. All gate valves must be equipped with handwheels, rams shall have manually-operated screw locking extensions with handwheels ready for use. 5. The remote station is to be located near the driller's position. The operating unit master control and BOP's shall be connected with steel lines and swing joints with 5000 psi working pressure rating. Inoperative condition of remote unit is not to interfere with operation of the master control unit. 6. Housing and heating should be provided for accumulator, blowout preventors, and choke manifold. 7. Contractor to make no connection to casing head side outlets, except as advised. 8. Keep on rig one spare set of ram blocks for the drillpipe in use. 9. Any misalignment of rig must be corrected to avoid undue wear of casing. page 45 DIVERTER PROCEDURE 1. Rig up diverter system consisting of 20" 2000 psi Hydril annular preventer with auxiliary equipment. Connect electric control switch for 10-3/4" butterfly to electric control switch for 20" annular for simultaneous operation. 2. Lay out lines on opposite sides of the rig taking into account prevailing winds. 3. In the event of well flow: A. Lift Kelly above 20" Hydril. B. Close 20" Hydril C. Watch wind direction and switch diverter lines if required. D. After need for diverter has passed, purge line with steam or air. Note: The 10-3/4" electric controlled butterfly valve, attached to the diverter spool, opens by an electric switch connected to the 20" annular control switch, as the 20" annular closes. MUD PROGRAM 1. 26" hole to 80'- Drill with dry hole digger to 80' prior to rig move. No mud will be used. page 46 PROGRAM 1. Install oiverter system 6n 20" conductor. 2. Using sufficent collars and drilling jars, drill 17-1/2" hole vertically to 2700' surveying every 500' Note- a. Maintain mud temperature between 40-45°F. Monitor and report accurately suction pit and flowline mud temperature. b. Clean and inspect casing. Make up and threao-iock float shoe, insert float collar and duplex latch in collar on pipe rack. Insure duplex stab-in sub will fit '~atch-in collar. c. Thickening time tests should be carried out by cementing company on each of the two batches of cement mixed, using the water which will be used for the job. TT to equal 4 hours at 50°F. page 47 2. 17-1/2" hole to 2,700' - Drill with XC polymer, and gel. Funnel viscosity to 200 SEC + through gravels and thinned back accordingly below 1,500'. 3. 12-1/4" hole to ll,O00 - Drill with non dispersed gel mud, XC polymer, and 10.5 - ll PH. May be lightly dispersed to control gels. Maximum anticipated mud weight is 10.2 ppg. 4. 8-3/8" hole to 14,200' - Drill iwth Lignosulfinate mud system. W.L. to be maintained 5-10. Maintain other properties as ~ole may dictate. Maximum anticipated mud weight is 11.0 ppg. 13-3/8" CASING PROGRAM The 13-3/8" casing will be run from surface to 2,700'. Data from area wells indicate this should give a good casing seat and shut off the perma frost that exists from surface to approximately 1,000'. Because this permafrost might act as a caprock, small accumulations of gas could be present in the surface hole. It is anticipated that gas would be at normal pressures. (The surface hole should be carefully monitored while drilling and tripping.) Also, mud should be kept as cool as possible to prevent thawing of the permafrost. page 48 PROGRAM 1. Install diverter system on 20" conductor. 2. Using sufficent collars and drilling jars, drill 17-1/2" hole vertically to 2700' surveying every 500' Note- a. Maintain mud temperature between 40-45°F. Monitor and report accurately suction pit and flowline mud temperature. b. Clean and inspect casing. Make up and thread lock float shoe, insert float collar and duplex latch in collar on pipe rack. Ensure duplex stab-in sub will fit latch-in collar. c. Thickening time tests should be carried out by cementing company on each of the two batches of cement mixed, using the water which will be used for the job. TT to equal 4 hours at 50°F. 3. Run 2700' of 13-3/8" 72# L-80 Buttress casing as follows' Float shoe One joint casing Insert float Latch-in baffle collar (equipped for latch-down plug) page 49 Have 13-3/8" Buttress swage with 2" valve and cementers hook-up 'available on floor. Rig to fill each joint while running casing. Centralize 10' and 20' on shoe joint, then one per joint on bottom 10 joints. Thread lock bottom 2 joints. 4. Land casing with landing joint spaced to place top of casing head flange 6' below ground level. Hook up circulating swage and break circulation to ensure floats are not plugged. 5. RIH with stab-in sub, on drill pipe anU stab into latch-in collar. Circulate and cement with- Permafrost II' slurry weight 14.9 ppg., yield 0.93 cu.ft./sk., water 3.5 gal/sk, until cement returns to surface. 6. Drop plug, displace with mud to latch-in collar checking displacement. Bump plug with 2000 psi. In float holds, POH and back out landing joint. Insure landing joint is breaking out of top joint of casing leaving thread up. Check T.O.C. Perform top cement job through tubing, if necessary. 7. Install 13-5/8" screw-on casing head. Nipple up on this head as required by head design. page 50 8. Install and test BOP stack as per requirements, have state 'representative present. The 13-3/8" casing should be tested to 300D psi before drilling out the shoe. 9. Install wear ring. Run 12-1/4" drilling assembly. Drill out shoe and approx. 50'. Pressure test to leak-off. 9-5/8" CASING AND CEMENTATION PROGRAM 9-5/8" Casin~ Properties and Dimensions Weight Grade Thread I. D. Drift Tension (Pipe Body) Collapse Internal Yield Make Up Torque 53.5 lb/ft Soo-95 Buttress 8.535 in. 8.379 in. 1,477,000 lbs. 7330 psi 9410 psi Make up to base of Triangle on Buttress Pin page 51 Annulus and Pipe Volumes 12-1/4" Hole 9-5/8" Casing 12-1/4" x 9-5/8" Annulus 13-3/8" 72# x 9-5/8" Annulus 5" Heavy Wt. Drill Pipe 5" Drill Pipe ft. 3/ft. 0.8185 0.404 0.3132 0.3262 0.0499 0.0999 bbl ./ft. 0.1458 0.072 0.0558 0.0581 0.0089 0.0178 Displacements ft. 3/ft. 9-5/8" Casing 0.0965 5" Heavy Wt. Drill Pipe (w/TF) O.lO15 5" Drill Pipe (w/TJ) 0.0376 bbl ./ft. 0.0172 0.0181 0.0067 The 9-5/8" casing will be run from surface to ll,O00'+. This will case off the unconsolidated or weakly consolidated shallow sands, and the majority of the hydratable shales. Potential hydrocarbon bearing sands can occur int he Cretaceous sediments. Extreme caution should be exercised on trips through these sections. The 12-1/4" hole sould not encounter severe abnormal pressure gradients, but all indicators must be closely monitored as this is an exploratory well. page 52 SUMMARY 1. Run 9-5/8" 53.5#/Soo-95 CASING TO T.D. 2. The first stage cement is designed to fill 60% of open hole volume from the 9-5/8" shoe to the 13-3/8" shoe with the estimated top of cement at 6,000' MD. 3. Second stage cement will be circulated through the DV collar at 2,700 to tie the 9-5/8" and 13-3/8" casing strings together. 4. A third stage will place Arctic Pack, a non-freezable and non-polluting fluid, through the potential permafrost areas from 1500 to surface in the 9-5/8" x 13-3/8" annulus. PROGRAM 1. Drill 12-1/4" to ll,O00. 2. Run open hole logs as listed in the logging program. Make wiper trip to T.D. POH. Pull wear ring. Install 9-5/8" rams. 3. Rig up and run 9-5/8" 53.5 Soo-95 Buttress casing as follows: Float shoe 1 jt. 9-5/8" Soo-95 casing page 53 Float collar 1 jt. 9-5/8" Soo-95 casing Shut-off baffle plate 8300 9-5/8" casing Howco DV collar 1200' + 9-5/8" casing Howco F.O. Cementer 1500 + 9-5/8" casing CASING RUNNING NOTES a. Make up float shoe and float collar on casing prior to running casing. b. Threadlock all connections on bottom 4 casing joints and also on DV collar. c. Centralize lO' and 20' above shoe and one centralizer every/other joint for 15 joints. Centralize every joint 10 joints below DV collar and on every other joint for 12 joints above D.V. d. Space out so casing slips can be dropped through rotary (depends on casing head type.) e. Have circulating swages with valve and cementers hook up available on floor while running casing. f. When running casing, fill every three joints. 4. After running last joint, install cement plug holding head, break circulation and circulate bottoms up. Hook up cement lines and test to 3500 psi. page 54 Note: Attempt to space out such that casing collar is below slip placement area with casing set on bottom. 5. Pump 50+ bbls. fresh water pre-wash ahead of cement. 6. Mix and pump first stage. Top of cement to be at 6000'. Slurry - 1715 cu. ft. (1454 sks) Class G cement with 1% CFR-2 Weight 15.8 ppg Yield 1.18 cu.ft/sk. Water 5.0 gal./sk. TT 3 hrs. at 185°F BHsT 7. After cement is pumped, drop 9-5/8" wiper plug. Displace with mud at a maximum pump speed with rig pump (+ lO BPM) to baffle plate. Bump plug with 3000 psi. Release pressure and check floats. 8. Drop DV opening bomb. Load cement head with DV closing plug. Allow time for bomb to drop (120'/min.), pressure up and open DV (1000 psi). Break circulation. Circulate bottoms up. 9. Mix and displace second stage cement as follows' Slurry - 190 cu. ft. (200 sks) Permafrost C (600' of fill). Weight 15.6 ppg. Yield 0.95 cu. ft./sk. Water 3.75 gal./sk. TT 3 hrs. @ 50°F page 55 ll. After pumping cement, drop DV closing plug. Displace with mud until plug lands. Close DV collar with 3000 psi. Lower slips and packoff down well bore through the rotary table. Pick up and pull and land slips and packoff. This should be done immediately after cementing. (This procedure may be modified, depending on casing head type.) 12. Nipple down BOPE. Install packoffs. Nipple up BOP's. Pressure 9-5/8" to 3000 psi and test packoff to 5000 psi. Test BOPE auxiliary equipment as per requirements. Install wear ring. (Depending on head design, nipple down may be eliminated). 13. RIH with ROC shifing fingers and packer. Open FOC, set packer. Open annulus valve and break circulation. Close annulus valve and pressure test cement job in 9-5/8" x 13-3/8" annulus to 1000 psi. Open annulus valve, pump 150 bbls. water and 300 bbls. Arctic pack. Displace with mud. Close annulus valve, unseat packer, and close FOC. Test closed FOC with annulus valve open. Close annulus valve. 14. RIH with bit. Drill out DV and test casing to 3000 psi. Drill out cement and float shoe. Drill 50' and test to leakoff. 7" LINER PROGRAM AND CEMENTATION PROGRAM A 7" liner will be run in this well only if hole conditions dictate that the liner is necessary to reach total depth, and/or if necessary for page 56 testing purposes. The liner would be run where drilling is in jeopardy due to hole conditions. The depth of the well is such that running a 7" liner could prevent reaching TD at 14,200'. Slower penetration rates and shorter bit life associated with 5-7/8" bits, along with the time required to run and cement liner will lengthen the drilling time. No operations are planned to extend past the winter operating season. PROGRAM 1. Drill 8-3/8" hole to TD of 14,200' or as hole conditions dictate. Coring should be at a minimum. 2. Run open hole logs as per Logging Program. Install 7" rams in BOP stack if liner is to be run. 3. Rig up and run 7" 32# Soo-95 Buttress casing as follows: Float shoe Two joints casing Float collar Sufficient 7", 32#, Soo-95 casing for a 200 liner lap Hanger Liner packer Tieback sleeve page 57 CASING RUNNING NOTES a. Threadlock all connections on bottom three casing joints. b. Centralize 10' and 20' above shoe and every joint on the bottom 25 joints c. Have circulating swages with valve and cementers hook up on floor for casing drillpipe. When running casing, fill as necessary. 4. Hangliner 5. Pump + 50 bbls. water ahead of cement. 6. Mix and pump cement: Slurry - Calss G with 18% salt, 1% friction reducer. Calculate cement volume based upon annular volume from caliper log + 25% excess. Weight Yield Water TT 16 ppg 1.2 cu.ft.sk. 5.0 gal/sk. 3 hrs. @BHST from loggers (retard as required) 7. Bump plug and set packer after checking that floats hold. Pick up and reverse out excess cement. POH. Lay down 8-3/8" BHA. 8. Replace 7" rams with 3-1/2" rams in BOP stack. page 58 9. Pick up sufficient 3-1/2" drill pipe and 4-3/4" collars and RIH with 5-7/8" bit. Clean out to float collar. 10. Pressure test lap to 3000 psi surface pressure. (Do not test before 12 hours after CIP). Squeeze if necessary. ll. If liner cement job tests to 3000 psi, drill out float equipment and cement then begin drilling new 5-7/8" hole. 12. Drill 30' of new hole below the 7" shoe and run static leakoff test. Drill to TD log, test and or P&A as required. 4-1/2" Liner The possibility exists that a 4-1/2" liner may be run from the 7" liner shoe to TD. This possibility is remote, but most be provided for if hole conditions require running the 7" liner prior to T.D., and then shows are encountered below the 7" liner. The 4-1/2" liner will be run in the same manner as the 7", and a detailed procedure will be issued at a later date. TESTING PROGRAM If testing is necessary to evaluate this well, we propose to test in a fashion compatible with the production expected and the Arctic climate. page 59 All tests will be performed with tubing and packers in the hole and the tree installed. Detailed procedures will be forthcoming when and if any testing should be done. The following Figure A-B-7 is a general layout of the surface testing equipment that could be used for a production test. Plu~ and Abandonment Pro~ram Several plug and abandonment alternatives exist and will be covered in the following. Both downhole and surface abandonment procedures will be in accordance with 20 AAC 25.105 and 20 AAC 25.120. Case #1 Well drilled to TD below 9-5/8" casing string. P&A procedure shown in Figure A-B-8 Case #2 Well drilled to TD and 7" liner set. P&A or T&A procedure shown in Figure A-B-9 Case #3 7" liner set to TD and well perforated. Procedure shown in Figure A-BN-IO Case #4 Open hole below liner. Procedure shown in Figure A-B-11 Surface abandonment will be below the ground and in accordance with regulations of the Alaska Oil and Gas Conservation Commission. WELLHEAD BURNER GAS OIL WATER AIR OAS OIL WATER AIR BURNER 2 SSV PROPOSED TESTING SCHEMATIC SURFACE tvX CHOKE MANIFOLD IN OAS PUMP HEATER TEST SEPARATOR ASME CODED OIL WATER OUT FIGURE A-B- 7' PROPOSED DOWNHOLE DIAGRAM ABANDONMENT WITH NO SHOW NO LINER RUN TOP OF CEMENT BASE OF CEMENT @ -60' GL 13.318" @ 2700' /I CI BRIDGE PLUG ARCTIC PACK t 500' TO SURFACE PLUG 50' ABOVE SHOE CI BRIDGE PLUG 9.518" @ 11,000' 50' BELOW SHOE T.D. 14,200' IN ADDITION PLUGS WILL BE -SET ACROSS AND ABOVE SANDS AS PER REGULATION FIGURE A-B-8 PROPOSED DOWNHOLE DIAGRAM TEMPORARY ABANDONMENT (LINER RUN) ZONE NOT PRODUCTION TESTED SURFACE PLUG 50' CEMENT PLUG 13.318" @ 2700' ~ ~ ~CI BRIDGE PLUG ARCTIC PACK FROM 1500' -TO SURFACE PLUG CI BRIDGE PLUG LINER LAP PLUG 100' CEMENT PLUG 9.5~8" @ 11,000' CASING SHOE PLUG 100' CEMENT PLUG 7" @ T.D. 14,200' FIGURE A-B-9 PROPOSED DOWNHOLE DIAGRAM TEMPORARY ABANDONMENT WITH SHOW ZONE PRODUCTION TESTED SURFACE PLUG 50' CEMENT PLUG 13-318" @ 2700' LINER LAP PLUG 100' CEMENT PLUG ~CI BRIDGE PLUG ARCTIC PACK FROM 1500' TO SURFACE PLUG CI BRIDGE PLUG 9-5~8" @ 11,000' 100' CEMENT PLUG ABOVE PERF INTERVAL CASING SHOE PLUG 100' CEMENT PLUG 7'~ @ T.D. 14,200' FIGURE A-B- 10 PROPOSED DOWNHOLE DIAGRAM PLUG AND ABANDONMENT (LINER RUN ABOVE 14,200') SURFACE PLUG 50' CEMENT PLUG 13-318" @ 2700' BRIDGE PLUG ARCTIC PACK 1500' /TO SURFACE PLUG LINER LAP PLUG 100' CEMENT PLUG 9-5~8" @ 11,000' CI BRIDGE PLUG OPEN HOLE PLUGS AS REQUIRED 100' PLUG CEMENT 50' BELOW SHOE FIGURE A-B- i 1 page 60 Effluent Control Waste material will not be permitted to accumulate at the drilling site. Burnable wastes will be disposed of in an incinerator, and other waste material will be transported away from the site on a frequent basis for disposal at an approved location on land. Garbage, noncombustible trash, ash from the incinerator, and other solid wastes will be transported to the North Slope Borough Solid Waste Disposal Utility or other appropriate sites as may be designated. Sewage will be treated by the camps physical-chemical treatment unit. Effluent from this unit will be chlorinated prior to discharge, sludge will be incinerated. Used drilling fluid will be processed for reuse when feasible, otherwise both mud and cuttings will be transported to land for disposal at a designated pit, or if permitted to at this time, on ice disposal may be used. The following Figure A-B-12 shows the general flow of all rig effluents. PERSONNEL REQUIREMENTS AND ORGANIZATION The drilling of the Beaufort Sea Block 54 Well No. 1 will be conducted by the Frontier Exploration Division of Tenneco in Houston, Texas. Adequate staffing of qualified personnel will be provided in Anchorage and on the North Slope to provide on site supervision and control of all phases. This staff will be supported by the contract rig personnel and RIG AND CAMP EFFLUENT SYSTEM mmmmmmmmmmmmmmmmmmmmmmmmmmmmm mm mm m m~ COMBUSTIBLE WASTE INCINERATOR SLUDGE SEWAGE SEWAGE PLANT GARBAGE, NONCOMBUSTIBLE WASTE CAMP DRILLING DRILLING FLUID AND CUTTINGS RIG WASTE OIL L mm mm mm mm mm m em m m em mmm mm mm m mm mm mm mm mm mm m m J ASH EFFLUENT I I I I I I I I I i I I I I I I I I I I I I I I NORTH SLOPE BOROUGH SOLID WASTE FACILITY WASTE PIT WASTE OIL IROAD OILING STORAGE J "~ i ii VARIOUS SITES INLAND I FIGURE A-B-12 page 61 their management, service personnel and consultants when needed. Some of the contracted services and consultants that may be used are as follows' 1. Logging companies 2. Cementing companies 3. Casing crews 4. Wellhead services 5. Mud loggers 6. Mud engineers 7. Ice engineers 8. Weather services 9. Communications specialists 10. Environmental engineers 11. Others A general plan of the operating organization is shown in Figure A-B-13. OPERATIONAL MANAGEMENT SYSTEM FOR BEAUFORT SEA BLOCK 54 WELL NO. 1 i CONSULTANTS & SERVICES FRONTIER EXPLORATION HOUSTON I I ! PRODUCTION HOUSTON EXPLORATION HOUSTON DRILLING SUPT. ANCHORAGE ASST. DRLG. SUPT. ANCHORAGE SECRETARY & DISPATCHER ANCHORAGE MATERIAL SUPER. & EXPEDITOR ANCHORAGE MATERIAL MEN ANCHORAGE 3 DRLG.'ENG. NORTH SLOPE 3-ROTATE CONSULTANTS & SERVICES GEOL. ENG. NORTH SLOPE 3-ROTATE Figure A-B-13 page 62 ENGINEERS CERTIFICATION I hereby certify I have reviewed the following SPCC plan and being familiar with the provisions of 40 CFR, Part 112 and 18 AAC 75.310, attest that it was prepared in accordance with good engineer practices. P. R. Edling Professional Engineer Texas Registration No. 34740 page 63 Attachment C TENNECO OIL COMPANY OIL SPILL CONTINGENCY PLAN BEAUFORT SEA BLOCK 54 WELL NO. 1 page 64 INDEX Preface Introduction General Information 1.1 Facility name 1.2 Type of Facility 1.3 Location of Facility 1.4 Site Description 1.5 Proposed Operational Time Schedule 1.6 Name and Address of Operator Details as Specified in 18 AAC 75.310 2.1 Response Cooperative Unit 2.2 Containment and Response 2.3 Key Personnel 2.4 Communications 2.5 Spill Probability 2.6 Detection and Monitoring 2.7 Notifications 2.8 Inventories 2.9 Chemical Control of Spills 2.10 Response Times 2.11 Disposal 2.12 Training and Manuals Page 65 66 67 67 67 67 67 68 69 69 69 69 73 73 73 74 77 77 77 77 78 78 PREFACE page 65 The following document is designed to serve as a guide for dealing with oil spill emergencies, should they occur in our Beaufort Sea Block 54 Well Ho. 1 The purpose of this offshore contingency plan is fourfold: l) To provide a list of jobs that must be done when oil is spilled, with identification of their priority and importance. 2) To provide for the assignment of such jobs prior to an oil spill, with appropriate designation of authority. 'f~' 3) To provide communication patterns to assure coordination of efforts. 4) To provide reference materials to those responsible for the various duties that occur as the result of a spill. This plan is considered supplementary to the ABSORB Contingency Plan and contains only elements of contingency planning pertaining to Tenneco Oil · Company's philosophy and organization. The bulk of the above listed preparation, training, equipment lists, organization and response actions will be defined and controlled by the ABSORB Contingency Plan and organization. It is through such cooperative efforts by the operating companies that the greatest efficiencies can be obtained in the unlikely event that an oil spill does occur during our planned exploratory operation. INTRODUCTION page 6 6 Oil spills have generated complex technical, legal, and public relations problems for the companies involved. Prior planning can help avoid or minimize such difficulties. It cannot be emphasized too strongly that the best way to handle oil spills is to prevent their occurrence. Good housekeeping, adequate equipment maintenance, and adherence to proper operational procedures are the best insurance against oil spills. If, in spite of the best care, accidental spills do occur, they will require the immediate coordination and efforts of many company departments, and perhaps, contractors and/or outside agencies. This offshore contingency plan is designed to guide Tenneco Oil Company personnel in the quick and effective response to the problems presented by accidental spills. Its primary goal is to limit, as far as practicable, damage to property, wildlife, or the ecology from such a spill. Within this offshore Contingency Plan and primarily in the referenced ABSORB Plan, you will find descriptions of the duties that are to be discharged when oil is spilled. It provides affected personnel with procedures for handling such spills effectively. Some of the procedures are mandatory, and they are so identified, others are merely suggested, as their application might be dependent on the conditions of the spill. lol ' 1.2 1.3 1.4 1. GENERAL INFORMATION page 67 Facility Name Beaufort Sea Block 54 Well No. 1 Tj/pe of Facility Exploratory Well Location of Facility The location will be on a gravel pad situated within a cove on the west end of Cross Island. The drill site about 15 miles from the Prudhoe Bay East Docks on a heading of 35°. Figure 1.1 is a map showing its location. Site Description The drill site will be a gravel pad approximately 250' by 650'. It is located within a shallow water cove on the west end of Cross Island. maximum elevation on the pad will be eight feet. LEASE SALE BOUNDARY i .__q ~F~AUrO~T SEA MIDWAY ISLANDS . '~ ~ L ~ CRO. ISLAND -', ~ ~.t~ I , . ~ ~ ~. -- ISLANDS ~PRUDHOE _' ~ ~'~ ~. .-- ~BAY~ --'~ · -- ¢~~ / STOCKTON.ISLANDS ~ ~ '~ ~ ~ MAGUI~E ISLANDS ~ ~ . .'- .FLagMaN IS. 0 10 I I MILES FIGURE 1.1 page 68 Freezeup in this area takes place in late September or early October. By the middle of October the ice is usually continuous between the drill site and shore and by early November the ice extends from the location to the polar pack. In early freezeup the ice may be susceptible to large movements but stabilizes as the ice thickens. These movements will not affect the Beaufort Sea Block 54 well as all equipment will be located on a gravel pad with the exception of the access ice road, and temporary ice berms for secondary spill containment. 1.5 Prgposed Operational Time Schedule Survey work and the transporting of equipment and supplies will begin after August 15. It is anticipated that the rig can be moved in by barge or ACV erected, and drilling started by November 1, 1982. It is hoped the well can be completed and tested and the rig movea out before deterioration of the ice strip in late April. If such is not the case the well would be temporarily plugged and abandoned, then completed and tested the following year. In the event a two year program is required to complete the well, the rig could be moved off the gravel pad then back to the location the following winter or stack on the gravel pad pending approval of page 69 the agencies concerned. It is noted that by State Stipulation No. 9, downhole activities are limited to the time period of November 1 to March 31 unless special permission is granted by the DMEM. 1.6 Name and Address of Operator This well will be operated by Tenneco Oil Company P. O. Box 2511 Houston, TX 77001 2.1 2. DETAILS AS SPECIFIED IN 18 AAC 75.310 Tenneco Oil Company is a member of the Alaska Beaufort Sea Oil Spill Reponse Body (ABSORB) and as such the Oil Spill Contingency Plan for Beaufort Sea Block 54 Well No. 1 will be the ABSORB Contingency Plan supplemented with specific information relative to our company and this well. References will be made to the ABSORB Plan but its pertinent sections will not De duplicated an~ included here as the plan in its entirety will be in all agency files along with sample participation contracts in fullfillment of 18 ACC 75.310 (a) (1) 2.2 A detailed description of the proposed manner of oil discharge containment and clean up operations, including operating manuals, page 70 personnel, organization, logistics, and communications is as follows: 2.2.1 Containment In the extremely unlikely event of a very large spill, containment would be provided in the form of a large containment area to one side of the gravel pad. This system would involve an ice sealed containment berm approximately two to three feet above the sea ice and about 200 feet square. The containment area would provide sufficient volume for a large spill from the rig (20,000) barrels). Additional areas could be quickly bermed in the same manner with on-site bulldozers and earth moving equipment should a larger area be needed. Fuel will be stored in double-walled steel tanks or in tanks which will be surrounded by snow and ice berms constructed for · secondary containment. Once the snow berm is constructed, the area will be lined with herculite and the berms will be sprayeU with water which, when frozen will form a complete ice/herculite containment area. Any fuel from a spill coming in contact with the berm would be at ambient temperatures. Inasmuch as the drilling program calls for completion prior to breakup, these dikes will be adequate during the period of operations. 2.2.2 Response page 71 An alert and response procedure will become effective immediately upon the observance of any oil spill. 2.2.2.l Any employee Observing an oil spill of any quantity must immediately notify his supervisor (Mandatory) 2.2.2.2 2.2.2.3 The supervisor will confirm the spill, its cause and basic nature, and notify the Drilling Supervisor. (Mandatory) The Drilling Supervisor will make a preliminary determination of the seriousness of the spill and initiate corrective and clean up measures. (Mandatory) 2.2.2.4 The Drilling Supervisor will notify the onshore Drilling Superintendent. If assistance is needed the Drilling Superintendent will provide personnel and equipment as needed up to and including the full scope response team as specified in ABSORB Plan Section 2. (Mandatory) 2~2.3 Clean Up Equipment page 72 A portable spill countermeasure building containing sorbent materials and clean up tools will be located near the wellsite. This equipment is designed to clean up minor spills. In the event a larger spill does occur additonal equipment and materials are available through the ABSORB Organization as specified in the Logistics and Equipment Section 6 and 7 of the ABSORB Plan. 2.2.4 Clean Up Operations Clean up operations will be conducted in accordance with Section 3 "Response Action Outline" of the ABSORB manual 'using the techniques of cleanup as described in Section 8. Operating manuals on spill response and equipment operation will be provided by ABSORB as will the basic organization for logistics and communications. These functions are covered in the ABSORB Manual Sections 2, 5, and 6. Personnel requirements for a Spill Response will be provided as much as possible with Tenneco employees and supplemented with qualified contract people and other company response te~ms as provided for in Section 2.2.1 of the ABSORB Manual. page 73 2.3 The name, title, business address, telex number, and business and after hours telephone or contact for key personnel who are assigned to elements of the Beaufort Sea Block 54 Well No. 1 operation and who will constitute the responSe team organization in case of a spill event cannot be provided at this time. As we assemble our personnel for this well a response team organizaion will be provided as in the following Figure 2-1 and in accordance with ABSORB Manual Section 2. These assignments will be updated during the progress of the well so that current availability and accountability is known by all concerned. 2.4 A communications plan to direct and coordinate clean up personnel is covered in Section 5 of the ABSORB manual and will provide the basics of such emergency communications reuirements. Inth case of minor spills, and to initiate mobilization of the more complex ABSORB System, existing communication eqiupment on the rig and in mobile units will be used. 2.5 An estimate of the size, frequency, and location of the maximum probable and median oil discharge is difficult to predict with any precision. Table 2.1 shows quantities that sould be consdered as estimates of spill events which might be reasonably conceived. In addition to this table, spill scenarios are provided in much more detail in Section 4 of the ABSORAB Contingency Plan. This data includes maximum possible and "worst case" estimates from two different sources. _ [ _. I.OCl STICS SUPERVISOR N~JRTII SLOPE AHCHORA~,E Cuu ril Ina to re i Ce. rd tnutors: °Cou~mmicat ions 'Couunlcations 'Hanpo~er 'Heap.vet 'Equipment/ 'Equipment/ Hat.rial tint,rial 'Transportation 'Transportation 'Food/llousln8 'Food/ilousin8 i ($pltler) i OPERATIOHS HArtACER J ii i I ii ii i i TECHNICAL SUPERVISOR i I NOR~[ SLOPE AHCIIOKAGE Coordinators: CoordJnatorel 'Environmental 'Environmental 'Safety 'Safety 'Enstneer Ins *Enslneer ins "1 HAHAG£R , , I SUPPORT SERVICES SUPERVISOR NORTH SLOPE ANOIORACE Co, rd I ua tore I Co,rd ina tore: °Documentation 'Documentation 'Government °Govermnent Liaison Liaison 'Security 'Security 'Accountit~ 'Acc,unties 'Least/ 'Least/ Insurance Insurance *Public 'Public Affairs Affairs I i ' CLEANUP SUPERVISOK i i ii Ill O£FSIIORE Co,rd ina tore 'Containment °Recovery 'St,tale/ Transfer 'Damp,eat 'Drop.teal SIIOREI. INE Coordlnutors: 'Conte I nme.t 'Recovery 'Store,e/ Transfer ~Dleposat 'Dispersal FI CURE I I I I mi! ABSORB RESPONSE TEAH ORGANIZATION 2O0 75 ,, · 595 75 100 ~cmtrolled 200,000 flo~ of c=-ude oil or well- bore fluid 2,000 page 74 The estimated frequency of such events is historically very low. As an indication of this low probability, note the following quotes: "No oil spill in excess of 50 barrels has been recorded during exploratory drilling, to our knowledge, in any offshore area throughout the world," Elmer P. Danenberger, 1976, U.S.G.S. Circular 741 page 9. Further more, "A study for Environment Canada indicated the probability of having a large blowout during exploration in the Beaufort Sea was in the range of 1 in lO0,O00 to 1 in 1,000,000," S. L Ross, Oilweek, May 19, 1980, page 52. We thus assume the probability of a maximum to medium oil discharge on this well to be extremely small. The most probable occurrance would be a minor spill associated with fuel transfer or maintenance and would occur in the fuel storage or power plant areas. These areas are provided with containment facilities and would be easily cleaned up. 2.6 Means of oil discharge detection, including surveillance schedules, leak detection, monitoring systems, spill detection systems and spill detection instrumentation- 2.6.1 Fuel and Lube The total operation of the Beaufort Sea Block 54 well will be under the constant surveillance of both operator and rig supervisors, and daily inspections will be made to assure no oil leaks or minor spills have occured. A personnel working in the fuel handling page 75 area or other areas where spills could occur will be thoroughly trained in handling procedures and how to respond in the event an accidental spil 1 does occur. 2.6.2 Blowout Prevention The source of a major spill would be from a well blowout and all operating procedures at the location, whether automated or directly controlled by Company or Contractor personnel, are specifically designed and organized to prevent such blowouts. The primary method of blowout prevention utilizes hydrostatic pressures exerted by sufficient density drilling mud to prevent undesired flow into the wellbore. In the unlikely event primary well control is lost, the following surface equipment would be utilized for secondar~ containment of influx into the wellbore. The rig will be equipped with a 20" 2000 psi W.P. annular diverter system instal.led on 80 ft. of 20" H-40 94# conductor pipe while drilling the 17-1/2" surface hole to 2700'. The diverter lines will be vented in two different directions to provide downwind diversion. After running and cementing 13-3/8" 72# L-80 surface casing at 2700', a page 76 blowout preventer {BOPE} consisting of three 13-5/8" 10,O00 psi W.P. rams, a 13-5/8" 10,O00 psi. W.P. annular preventer, and a two-choke manifold will be installed, After installation of the BOPE, it will be thoroughly tested for leaks using diesel fuel. It will be pressured tested and function tested as required in 20 AAC 25.035. This same procedure will also be followed after setting 9-5/8" casing. Automatic and manual monitoring equipment will be installed to detect any abnormal variation in the mud system and drilling parameters. A mud logging unit, manned by experienced personnel, will be in continuous use while drilling, and it will monitor formation pressure, hydrocarbon shows, and loss or gain in the mud pits as well as other downhole conditions. In the event that the well "kicks", the BOPE will be used to shut in the well immediately and confine the pressure within a closed system. The casing program is designed so any anticipated formation pressures can be shut in at the surface without a casing failure. The Company representatives assigned to the drill site will have extensive training, together with actual experience in controlling and killing kicks. These personnel will be further supported by well-trained drilling crews approved by the Company. Pressure resulting from a kick will be circulated out using the balanced bottomhole pressure method, and the well will be restored to its normal operating condition. page 77 In the unlikely event that control procedures are unsuccessful and a blowout does occur, emergency steps must be initiated. This usually involves people, equipment and methods dictated by the circumstances. Very often directional wells are drilled for the purpose of killing or controlling the blowout. In the event of such an emergency one of the many rigs in the North Slope area would be made available for drilling the directional well. 2.7 Procedures for notifying operating personnel, response personnel, and appropriate state and federal agencies are covered in Section 3 and Appendix D of the ABSORB Manual. A copy of the form and reporting guidelines from ABSORB are included here as Figure 2.2 and 2.3. 2.8 A complete inventory of clean up equipment is provided in Section 7 of the ABSORB Manual. 2.9 The use of chemical collectants and chemical dispersants for the use of oil discharge control is thoroughly covered in Section $ of the ABSORB Manual. 2.10 Response times to a spill will depend on the source and severity of the spill and many other conditions that may exist at the time of the spill. Small spills can be reacted to immediately, then contained and cleaned up with personnel and equipment at the well site. Other spills may require the obtaining of additional personnel and equipment. The ABSORB INITIAL REPORT FORM I. SPILL DATA TIME OF CALL PERSON REPORTING SPILL AFFILIATION SPILL LOCATION (Specify) DATE Member Company. Non-Member Company Government Agency TYPE. OF OIL EST. GRAVITY SPILL SOURCE (Blowout, Tank rupture, etc.) VOLUME/FLOWRATE . FLOW STOPPED? ~ Yes SPILL DESCRIPTION (Into Water? Ignited? Areal Extent? Etc.) ~ No "ACTIONS TAKEN (Briefly)' EQUIPMENT DEPLOYED (Major Pieces); AGENCIES NOTIFIED I I. ENVIRONMENTAL CONDITIONS AT SITE WIND (Speed ~ Direction) TEMPERATURE VI S I B'I L I TY ICE CONDITIONS SEA STATE ---NVIRON~iENTAL DAMAGE (Real or Potential) Fi gure 2-2 SPILL LOCATION ON LAND ONLY ON LAND BUT THREATENING OR IN INLAND SURFACE 'dATER ON ~ATER (Within 3- nautical-mile limit) ON WATER (Between 3- and 200-nautical-mile limit) -- , , U.S. COAST , GUARD AGENCY --- , U.S. ENVIRONMENTAL PROTECTION AGENCY ,,, , , U.S. GEOLOGICAL SURVEY i i I/l/ , , , AK DEPT. OF. ENVIRONMENTAL CONSERVATION AK OIL & GAS CONSERVATION COmmISSION NOTIFICATION REQUIRED 1/If oil is from a well on a federal oil lease 2/If oil is from a well on a state,oil lease F1GURE 2.3 I I II I I I I I I I I II I · GOVERNMBNT NOTIFICATION REQUIREMENTS FOR SPILLS IN , THE BEAUFORT LEASE SALE AREA ! J I I I _ I II I I II I · I I II I iiiiii i mm Page 1 of 2 j II III II I IIII I I I SPILL VERBAL PHONE 141~ITTEN AGEBCY SIZE REPORT NUtlBER REPORT W ltl I lit! I I I Il Ill U.S. COAST GUARD All Spills Immediately (211) ZENITH 5S55 Recommended buC or 271-5137 hoc requtred U.S. ENVIROIJHENTAL All Spills Immediately (211) ZENITH 5555 For facility · PROTECTION AGENCY or 271-5083 (Days) requtrin$ SPCC Plan 366-9327 (Niahts) if spill is ) 1000 gallons or if spill i9 second spill in 12 months U.S. GEOLOGICAL ) I cu. meter (6.3bbl) Immediately 271-&3&8 (Days) 'All spills (Fot~ SURVEY 271-6303 (Nights) 9-1880) · I cu. meter (6.3bbl) Within 12 hours AR OIL & GAS ~t~r CONSERVATION COt~ISSION )55 8al or 1000 sq. ft. sheen Immediately (211) ZENITll 9300 Within 15 days of or &52-1716 (Fair- end of cleanup Hazardous material banks) operation other than oil Immediately · .5 pt or · 100 sq. ft. 7 days All other water spills 2& hours ~a.~ >55 gal 5 hours (211) ZENITH 9300 Within 15 days or 452-1714 (Fair- of end of 10 to 55 8al 24 hours banks) cleanup operation 410 8al 7 days Any other hazardous material Immediately AK DIV, OF ~11 Spills Immediately 279-1433 Within 5 days of OIL & GAS spill report CONSERVATION *See Section 2.3.3 for details of report requirements. i _1 i mm ,lmmlm m m I ~llll I I I I Il Ill I FIGURE 2.3 GOVERNMENT NOTIFICATIOI~ REQUIREMENTS FOR SPILLS IN (Cont'd) THE BEAUFORT LEASE SALE AREA I ti I I -- I I I - ' J II [ I ! II Page 2 of 2 ~111 I iii u i __ i · i il i i -- i.Jl page 78 response to several scenarios of spill occurrances is covered in great . detail in Section 4 of the ABSORB Manual. 2.11 Section 8.4 of the ABSORB Manual discusses in detail disposal alternatives. This data will be used as a guide-line in the event a spill does occur and disposal of oil and clean up materials is required. 2.12 Tenneco as a member of ABSORB will participate in the training prescribed in Appendix C of the ABSORB Manual. Through this organization training, field exercises, workshops, seminars, and operating manuals will be available to assure our response personnel are properly prepared in the event of a spill. OSI %5289 Santa Barbara California May 1980 ATTACHMENT D Prepared for: TENNECO OIL COMPANY Prepared by: OCEANOGRAPHIC SERVICES, INC. ENVIRONMENTAL CONDITIONS IN THE VICINITY OF CROSS ISLAND Table of Contents INTRODUCTION SITE DESCRIPTION General Geotechnical Considerations Summer Conditions Winter Conditions Area Wildlife Area Fish ICE LOADS AND RIDE-UP ICE ROAD REFERENCES Attachment #l - ADDITIONAL COMMENTS ON ICE RIDE-UP Attachment ~2 - ADDITIONAL COMMENTS ON THE ICE ROAD Pa~)e 1 3 3 4 ll 13 14 16 19 23 25 List of Tables Table 1 FREQUENCY OF EASTERLY AND WESTERLY STORMS ALONG THE NORTH SLOPE Page OCEANOGRAPHIC DESIGN CRITERIA FOR A 30-FOOT WATER DEPTH SITE IN STEFANSSON SOUND SIGNIFICANT SEASONAL FAST ICE EVENTS WINTER ICE MOVEMENT STATISTICS FOR STEFANSSON SOUND SUMMARY OF BIOLOGICAL EVENTS IN THE BEAUFORT SEA 12 List of Figures Figure 1 LOCATOR CHART BEAUFORT SEA ICE THICKNESS CURVE 17 ENVIRONMENTAL CONDITIONS IN THE VICINITY OF CROSS ISLAND INTRODUCTION The report presents an overview of the environmental conditions in the vicinity of Cross Island. Attention has been focused on those environmental conditions that will have an impact on the drilling of an exploratory well near Cross Island in the 1982 and 1983 drilling season. Consideration has been given to site description; ice, oceanographic, adn meteorological conditions affecting site preparation, mobilization, drill, and demobilization; and the biological impact of drilling activities on wildlife and fish in the area. An attempt has been made to present the discussion in a format that can be directly used in Tenneco's operational plan. SITE DESCRIPTION General Cross Island is a member of the Midway Islands group located about 18 miles north of Prudhoe Bay (Figure 1). The island is semicircular in plan, about 2 miles long, and 1,100 feet at its widest point, maximum elevations on the island are 7 to 8 feet. The island is primarily composed of silt and sand, and coarse gravels may be found at higher elevations. There are a few patches of sparse vegetation on the island (Gavin, 1976). During the summer the island may be subjected to waves and surge caused by severe summer storms (Reinmitz and Maurer, 1979). In winter large ice pile-ups have been observed on the island's northern beaches (Kovacs and Sodhi, 1979). It should also be noted that Cross Island has been identified as an important bird breeding and molting site during the summer (Divocky, 1978; and Gavin, 1976). 71°00~ 70°',30, 70000* II 1,3 / ..... ,4 i.'i · I I I 150° 149° 148° 147° 166° Fi 9ure ] Geotechnical Considerations Cross .Island is a recent constructional accumulation (lag deposit) of sand and gravel entirely derived from the Pleistocene Flaxman Formation (consolidated marine sandy silt containing dropstones of Canadian origin). The island appears to be migrating southward en masse at rates of 12 to 24 feet per year. The older parts of the island, covered by vegetation, are underlain by ice-bonded permafrost at depths of about 6 feet. Most of the island does not have permafrost near the surface, that is, within 30 feet (Rogers and Morack, 1978). Based on a borehole obtained just northeast of Cross Island by Harding-Lawson Associates (1979), relict permafrost is expected about 60 to 70 feet below the island surface. Numerous mounds, up to 5 feet high, extend as much as 100 feet inland from the northern beach. These mounds were formed during previous ice pile-up and ride-up events (Kovacs and Sodhi, 1979). Problems may be encountered with gas hydrates during drilling. Katz (1971) has indicated that gas hydrates may be present at depths between 1900 and 3400 feet in the Prudhoe Bay area. The sediment source for Cross Island is no longer evident. The' island is a lag deposit and is regarded as being irreplaceable by arctic geologists. Removal of gravel from the island would perturb the local oceanographic and biological regime. Summer Conditions During August and September the area around Cross Island is usually ice free and the island may be subjected to waves and surge caused by easterly and westerly storms. Easterly storms (winds greater than 25 knots) typically last for 3 to 5 days. They result in offshore ice movement and negative surge. The low water levels often ground boats and barges in shallow water areas. Westerly storms are usually accompanied by strong west to northwest winds (greater than 25 knots) and usually last 2 to 3 days. These storms result in positive surge and must be considered in the design height of drilling platforms to be used in the summer. The average frequency of easterly and westerly storms by month is given in Table 1. Waves during the summer are generally less than 2 feet high and rarely greater than 8 feet in height (Brower and others, 1977). Extreme statistics on oceanographic conditions have been reported by Heideman (1979). Some results from two hindcast studies performed for a 30-foot water depth site in Stefansson Sound are given in Table 2. The Splash II model was used to hindcast storm surges and Bretschneider's shallow-water wave generation theory was used to calculate the height of storm wages. It is expected that the storm surge levels would be slightly less for Cross Island and that the storm waves would be slightly higher. The estimated 100-year storm surge level agrees favorably with observed results of the 1970 North Slope storm reported by Reimnitz and Maurer (1979). Wood carvings from a cross erected on Cross Island in 1889 were washed away during that storm. Winter Conditions Freezeup along the North Slope takes place in late September or early October. By the middle of October the ice is usually continuous inside the barrier islands and by early November the ice extends seaward of the barrier island to the pack. During freezeup the thin ice may be susceptible to large movements, however, as the ice thickens it becomes more stable. Over ice transport-inside the barrier islands is generally safe by late December when the sheet ice is about 3 feet thick. The ice remains safe for travel in Stefansson Sound until the rivers overflow the sea ice in late May. Immediately north of Cross Island the ice may remain dynamic throughout the winter and is usually Table 1 FREQUENCY OF EASTERLY AND WESTERLY STORMS ALONG THE NORTH SLOPE (after Selkregg, 1976) Month Easterly Westerly August 3.3 1'0 September 2.8 1.3 October 1.5 1.0 Table 2 OCEANOGRAPHIC DESIGN CRITERIA FOR A 30-FOOT WATER DEPTH SITE IN STEFANSSON SOUND (after Heideman, 1979) Return Period (Years) Storm Significant Wave Maximum Wave Surge Height Height (Feet) (Feet) (Feet) 25 4.4 12 22 100 6.3 14 27 highly deformed. Breakup takes place in July and by the end of July.the area of interest in usually surrounded by open water. Average dates of significant seasonal fast ice events are given in Table 3. These data were compiled by Barry (1977) from four years (1973-76) of Landsat satellite imagery. In a subsequent study, Barry (1978) reported that river overflooding of the sea ice was first preceded by darkening of the river channels (average date of 22 April). Stringer (1979) has characterized the ice inside the barrier islands as being generally smooth, often formed in place with little or no deformation. Occasionally, the ice is broken while it is still thin and forms a cover of floes surrounded by a matrix of younger broken ice. These small ridges are typically less than 2 feet high (Cox, personal communication) and present little difficulty to surface travel. Even though the ice inside the barrier islands is generally smooth from year to year, it can exhibit significant surface roughness. During 4-9 November 1978 storm ridges up to 13 feet high were formed inside the barrier islands. This storm was then followed by another event which resulted in the formation of some minor pile-ups on the south side of the barrier islands-- (Kovacs and Weeks, 1979). Larger ridges, such as these, are typically isolated and may be avoided through route selection by ice reconnaissance flights. Ice movement inside the barrier islands after November is certainly limited. Ice movements statistics for a site in the middle of Stefansson Sound have been presented by ~<heeler (1979) and are given in Table 4. The data were compiled from three winters of ice movement measurements obtained in the area by petroleum operators. .The maximum observed ice movement or excursion in Stefansson Sound was 14 feet. The maximum measured rate of movement was 5 feet per hour. Estimates of the 25 and 100-year ice movement rate and excursion were also given. Table 3 SIGNIFICANT SEASONAL FAST ICE EVENTS Average date (-+10 days) of significant seasonal fast ice events from Landsat imagery (after Barry, 1977) Event New ice formation, freezeup First continuous ice River overflooding of sea ice Appearance of melt pools on ice First 6penings in ice End of stable period, breakup Coastal zone ice free Average Date 3 October 15 October · 25 May 10 June 29 June 7 July 31 July . Table 4 WINTER ICE MOVEMENT STATISTICS FOR STEFANSSON SOUND (after Wheeler, 1979) Return Period 25-Year 100-Year Maximum Observed Rate (Feet/Hour) 6 8 5 Excursion (Feet) 50 87 14 The ice conditions immediately north of Cross Island are signifi- cantly different from those observed in Stefansson Sound (Stringer, 1979). The ice just offshore is usually highly deformed consisting of large shear ridges and dynamic'flaw leads. These ridges have sail heights of several tens of feet and are up to 10 miles long (Kovacs and others, 1976). During March-May 1976, a large multi-year shear ridge was investigated in 45 feet of water just north of Cross Island. Maximum ridge heights were up to 40 feet. This ridge had formed in the fall of 1976 and remained in the area through August 1976 (Kovacs and Weeks, 1976). Similar large features have also been observed off Narwhal Island in 60 feet of water. During a 16-18 March 1979 storm, a grounded ridge 70 feet high and over 1000 feet long was formed. Half a mile of ice movement was observed to have taken place about 5 miles to the west of this site (displaced seismic lines). Ice movements in water depths less than 60 feet just north of Cross Island have been described by Agerton and Kreider (1979). During the 1976-77 winter, movements in excess of 150 feet were measured during January and April storms. Movements measured farther offshore by OCSEAP investigators were even greater (Tucker and others, 1978). Large ice motions can occur any time during the winter north of the barrier islands if the ice sheet is not suitably pinned by large grounded ridges or multi-year ice. Large ice pile-ups also have been observed on the northern beach of Cross Island. In 1974 a large pile-up having a mean height in excess of 20 feet was studied by Kovacs (Kovacs and Sodhi, 1979). The ice blocks in the pile-up were 20 inches thick. Ice just offshore was 21 inches thick indicating that the pile-up had recently formed. 10- Area Wildlife A summ., ary of annual biological events in the Beaufort Sea is presented in Table 5 (from Broad, 1980). Available information indicates that little wildlife will be present on or around Cross Island during the anticipated operations period (15 October through 15 May). The primary residents in t~e area during winter are polar bears and ringed seals. Occasional visitors are arctic foxes and a few bird species (willow ptarmigan, snowy owl a~d common raven). Polar bears and ringed seals reproduce during the winter. Major land denning areas of the polar bear are along the banks of rivers, especially in Cambden Bay. Denning areas in landfast ice are believed to be distributed widely along the Beaufort coast from Jones Island eastward beyond Flaxman Island. Polar bear tracks have been sighted on Cross Island during winter (Gavin, 1976). Ringed seals are present in the landfast ice zone during winter. They are known to be in the area from historical hunting records. The depth beneath the ice adjacent to Cross Island is limited during winter, so it is doubtful that any seals will be present near the drilling site during drilling operations. Several other organisms are present on and around Cross Island during the summer or "non-drilling" season only, and therefore, should pose no restrictions to winter drilling operations. Benthic forms retreat to greater depths with the onset of freezeup to escape crushing by encroaching ice. Plankton is-plentiful during the brief open water period.. ~ost of these organisms are eaten by fish and seals while those that survive overwinter under the ice bear young the following year (Carey, 1978). Birds, primarily common eiders, glaucus and sabine gulls, and arctic terns, nest on Cross Island from June through August. However, they do not occupy the island until the onset of breakup 11 MICROB. ACTIVITY MICRO ALGAE ZOO- PLANKTON BENTHOS EPI- BENTHIC CRUSTACEA MACRO ALGAE FISH BIRDS MAMMALS EVENTS ) Table 5 SUMMARY OF BIOLOGICAL EVENTS IN THE BEAUFORT SEA (from Broad, 1980) Declining iii ' Sedim~nl and waler i~o'hJmn-, N-Fixolion ., Winler Lows . :_.:._: ....... ,. _-.-:(nora. Dried .aclivity in sedimenl, Slight decline ---.: . ...... , ~ , ~increOse '-","~ 'Increase - -Peak ~. - Decrease ,, flogelloleS'~'frozen In Ice MaXimum nulrient ' .' concentrOiIon9 .......... ',.,'L · , ,..: Ice algae 'Bloom in H20 Blooms- Maximum- Sloughs of f ,~. :':':COpepods ~' Pi:edominanl Polych0ete ,. larvae found ... .. .... ' , CopePodS W/egg sacS, polychoele 6 bornocle larvae common Cyclopoids ,' predominole under ice ?-- d ,, Reduced .... ~ feeding Increased activity filter feeders Ice ossocioled poiychdetes L--~ Decreases Nematodes incr. under ice Spawning Crustacea leave neorshore . .:i Increased inciden(~e 'oCebnic spp. Arnphip. ods, mysids : ovJgerous OnisJmus hatches ocliVe in sell ice 'Abundanl High aclivily $odurio ' ": ' -: -:~ .... i :::: . IlL ,, : -- i ,Mysids move offshore ~ ~tili 0vigarous :[ce fauna disappears Cruslacea return .' .:..... ... Io nearshore " d lagoons . . :::.::..:.., :...._' .,:,., ,.,:' . Rapid ' growlh of Lttmindritl " Kelp release meiOspotes --:i:-' ...... ::::--,, '~ Red algae reproduce' PholosynlhesiS high· , .: Arcllc cod "Green"- Op(IWn --eggs float(under ice)-- halch Anodromous sa~.:p.: Predominanlly ,,erine SPP:. Morind 'spp. enter slreoms ,', in neorshore/inshore exit S;m~'~'~ I. Ogoon Boreal smelt remain Myoxocephalbs ' - ~ggs sink .. · - spawns ttparids spawh · ~'LI I'll ':::~ :'' .... Anadromous spp. in leads along shore Only slragglers 'left .. - No birds sing.- I0~-107 I]lrd6 104 Bi'rds in enter FJeouiort neorshore Wesl migrotibn'": Ringed seals feed" '"' .. of Bowheads :' .... '.on cod ' ..: Polar... bear ..... . .... '~- · .··'denning .. :..:_;':..:::. -'_:_:_: ;...; ~ · ..:..:.._.; . Ringed Seals` Pupping EaSt '-'off~hore migration establish ialr~ Nursin~ . ;. of Bowheods -..~ Poldr bears · Seals enler emerge .,.:..: from S I~ W Shore- fas'l ' . ice forming'.~:.'.:..:'::'.' .~.. ~ FULL W J~i'ER' :"CONDITIONS "=' " ': High sedi-'..:.inCi'eaflnd solinily and 'increO~ttig oil sensiliV:iy "."::.~ .,:.:~ mentolion ~Jfl laooons-- Wafer ele~r~ "-~:---'-- ~ '~ ~.- Moximdi~. ice thickness ' ,. ---'Moximo _.~ ~ Turbidity increases (after 15 May) when a moat forms around the island to protect them~from predation by arctic foxes (Schamel, 1978). Many birds-- old squaws, red and northern phalaropes, sabine's gulls, snow geese and eiders-huse many of the barrier islands, including Cross Island, for molting and staging prior to their southward migration. All birds, except a few stragglers, are gone from the North Slope by 15 October. Bowhead whales migrate during the proposed non-drilling season. Their north-northeastward movement takes place from May to June primarily in leads offshore in the flaw zone. They migrate west- ward during September and October, generally seaward of the barrier islands (Braham and others, 1978). There is some concern that young bowhead whales, because of their relatively small size, will be able to come near or even inside the barrier islands. However, it is unlikely that they will remain in the area later than October. Area Fish Over 30 species of fish inhabit the nearshore waters along the Alaskan North Slope. Areas of greatest species diversity are the deltas of the large rivers. The species can be classified into three broad categories: (1) freshwater species which reside in rivers; (2) anadromous species, those that tolerate both salt and fresh water and migrate from one to the other during their life cycle; and (3) marine species, those that remain in brackish or marine waters throughout their lives. Three anadromous and two marine species account for most of the fish present in near- shore waters of the Alaskan Beaufort Sea. These are: Anadramous Arctic cisco Least cisco Arctic char Marine Fourhorn sculpin Arctic cod During the summer the anadromous species migrate from the rivers to the nearshore deltaic regions to feed extensively. In general these fish do not migrate far offshore and most are found along the mainland coast or arounu the island perimeters. The reason for this is not known entirely, but the shoreline waters tend to be slightly warmer and less saline that other areas. Little is known about fish overwintering habits. In general, anadromous fish leave the coastal waters and return tooverwinter in deep or spring-fed channels in the deltas of major river mouths. ~resumably marine species migrate to deeper water offshore, though the fourhorn sculpin is known to use the Colville Delta. Arctic cod are known to be present during winter, but their under-ice distribution is unknown (Carey, 1978). Ice surrounUing Cross Island undoubtedly will be grounded, and therefore, it is unlikely that any fish will be present in the vicinity of the proposeU drill site. ICE LOADS AND RIDE-UP During the course of the drilling operation t~e island may be susceptible to large lateral ice loads and ice ride-up caused by movement of the surrounding ice sheet. 14 Ice ride-up is not considered to be a problem after December. Typically, ice Tide-up and pile-up occur during freezeup and breakup when the ice is hi§hly mobile (Kovacs and Sodhi, lg79). After December, the ice around Cross Island has stabilized. Immediately around the island the ice will have frozen to the sea floor to the 3-foot depth contour. Grounded shear ridges north of Cross Island also will pin the ice sheet and protect the island from the pack. The southern and central portions of the island may be protected from riae-up by pile-ups which had formed on the island perimeter during freezeup. An advancing ice sheet would either join against the pile-up or ride-up to the top of the pile and fail. Existing ice push mounds on the beach will increase the sliding resistance of an advancing ice sheet and induce failure. Even though ice push mounds and pile-ups have been observeU on the perimeter of Cross Island, the island has not been over-ridden by ice in the recent past. The USGS survey tower and the 30-year old cabin on the island have never been encroached upon by ice. Drilling operations have also been safely conducted on other natural islands near Prudnoe Bay (Gull, Niakuk, ano Flaxman Islands). Consideration is being given to installing an ice movement station north of Cross Island to warn personnel of any ice motion during the Urilling program. The ice movement monitoring system causes an alarm to sound at the drill site should the ice move greater than a preset amount. 15 ICE ROAD Once the sea ice in Stefansson Sound has reached a safe thickness, the drilling operation will be supplied via an ice road from Prudhoe Bay to Cross Island. The ice road will also De used to demobilize the well in late March and April. An analysis of the "safe ice thickness" is academic for most ice road traffic. North Slope construction firms and contractors have indicated that the ice must be about 3.5 to 4 feet thick before they will operate heavy equipment (25-50 tons) on the ice. Based on the ice thickness data compiled by Schell (1974), this thickness is usually attained by early to late January (Figure 2). Ice stress calculations will be performed for heavy loads (rig and substructure). A safety factor of 3 in these calculations has proved to provide a realistic mar§in of safety. The ice is regarded as being safe for travel until late May when the ice near the coast is flooded by river overflow. Other factors besides the flexural stren§th and ice thickness affect the bearing capacity of the ice sheet. Consideration will be given to vehicle speeds, fatigue, and cracks. Vehicle speeds will De maintaine~ below the critical velocity that results in the formation. 16 Figure 2, BEAUFORT SEA ICE THICKNESS CURVE (after Schell, 1974) 0.0 ~ LO L5 NOV, 0£C, ,lAN. FEB. MA R. APR. MA Y /CE TH/CKN£SS - ARC TIC COA S T (¢omposll~ dato 1970-1975) o HARRISON 8A Y - SIMPSON, LAGOON - · £LSON LAGOON-OEASE INLET · 0 0o · ° t 0~00 .~ .... ,~ ..... q-------o of a hydronamic wave in the underlying water. Velocities in excess of the critical velocity can result in increased stresses in the ice sheet and failure. Fatigue due to repeated loading may produce unWanted cracks in the ice. Consideration is being made to make the ice road of sufficient width so that the traveled path can be changed periodically to allow for the recovery of fatigued areas. Wet cracks will be avoided as the bearing capacity of the ice sheet is one-half that of a continuous ice sheet. Factors affecting the bearing capacity of an ice sheet and the use of ice roads have been described adequately by Assur (1961), Gold and others (1958), Gold (1971) Michel (1978), and Nevel (1970). Ice roughness should not present a problem for over-ice transport in Stefansson Sound. Generally, the ice is smooth with low relief. Larger ice features or deformed areas can be avoided by flying an ice reconnaissance prior to route selection. 18 REFERENCES Agerton, D. J. and Kreider, J. R. (1979) Correlation of storms and major ice movements in the nearshore Alaskan Beaufort Sea, POAC '79 Proceedings, Vol. 1, p. 177-189. Assur, A. (1961) Traffic Over Frozen or Crusted Surfaces, Proceedings of the 1st International Conference on the Mechanics of Soil~Vehicle Systems, Torino, Italy, pp. 913-923. Barry, R. G. (1977) Study of climatic effects on fast ice extent and its seasonal decay along the Beaufort-Chukchi. Coasts, OCSEAP 1977 Annual Report, Vol. XIV, Transport, p. 574-632. Barry, R. G. (1978) Study of climatic effects on fast ice extent and its seasonal decay along the Beaufort-Chukchi Coasts, OCSEAP 1978 Annual Report, Vol. IX, Transport, p. 604-680. Barthelemy, J. L. (1975) The man-made ice wharf, CEL Technical Note TN-1376, p. 18. Baudais, D. J.; Masterson, D. M.; and Watts, J. S~ (1974) A system for offshore drilling in the arctic islands, Journal of Canadian Petroleum Technology, July - September 1974, p. 1-12. Braham, Howard; Kingman, Bruce; Leatherwood, Stephen; Marguette, William; Rugle, David; Tillman, Michael; Johnson, James; and Carrol, Geoff (1978) Preliminary report of the 1978 spring bowhead whale research program results, Marine Mammal Division, NMFS, NOAA, Seattle, 98115. Broad, A. Carter (1980) Biological events - October through June - Beaufort Sea, In OCSEAP Special Bulletin %29, pp. 36-39. Brower, W. A., Jr., and others (1977) Climatic Atlas of the Outer Continental Shelf Waters and Coastal Regions of Alaska: Volume III, Chukchi - Beaufort Sea," NOAA/BLM, AEIDC Publications B-77. Bureau of Land Management (1979) Beaufort Sea: Final Environmental Impact Statement, VI (pp. 59-90) and VIII (Graphics 2-9). 19 Carey, Andrew G., Jr., (ed.) (1978) Environmental Assessment of the Alaskan Continental Shelf, Interim Synthesis: Beaufort/Chukchi Seas, Part 6 (Marine Biota), (P 1 ankto~/Ben thos/Fish ) . Cox, G. F. N. (1979) Artificial ice islands for exploratory drilling, in POAC '79 Proceedings, Vol. 1, pp. 147-162, Trondheim, Norway, 13-18 August 1979, Norwegian Institute of Technology. Cox, G.-F. N., Personal co~ication Research Geophysicist, Divocky, G. J. (1978) Breeding Bird Use of Barrier Islands in the Northern Chukchi and Beaufort Seas. In Environmental Assessment of the Alaskan Continental Shelf, Annual · Reports of Principal Investigators for the year ending March 1978, Vol. I, pp. 482-569. Dykins, J. E. and Funai, A. J. (1962) Point Barrow Trials - FY 1959; Investigations on thickened sea ice, NCEL Technical Report R185, p. 142. Dykins, J. E.; Stehle, N. A.; and Gray, K. O. (1962) Point Barrow Trials - FY 1960, Free-flooded and ice-aggregate-fill sea ice, NCEL Technical Report R218, p. 77. Eley, T. and L. Lowry (ed.) (1978) Environmental Assessment of the Alaskan Continental Shelf, Interim Synthesis: Beaufort/Chukchi Seas, Part 4, Marine Mammals, pp. 134-151. Gavin, A. (1976) Wildlife of the North Slope: The Islands Offshore Prudhoe Bay, the Snow Geese of Howe Island, the Seventh Year of Study, Atlantic Richfield Company, pp. 71. Gold, L. W. (1971) Use of Ice Covers for Transportation, Canadian Geotechnical Journal, Vol. 8, pp. 170-181. Gold, L. W. and others (1958) Deflection of Plates on Elastic Foundations, Transactions of the Engineering .Institute of Canada, Vol. 2, pp. 123-130. Harding-Lawson Associates (1979) USGS Geotechnical Investigation Beaufort Sea - 1979. Heideman, J~ C. (1979) Oceanographic Design Criteria, Technical Seminar on Alaskan Beaufort Sea Gravel Island Design, Exxon Company U.S.A. 20 Katz, D. L. (1971) Depths to which frozen gas fields (gas hydrates) may be expected, Journal of Petroleum Technology, .Vol. 23, No. 4, p. 419-423. Kingery, W.-D.; Klick, D. M.; and Dykins, J. E. (1962) Sea ice engineering, summary report, Project Ice Way, NCEL Technical Report R189, p. 223. Kirkpatrick, T. W. (1974) Ship operations, Deepfreeze '74, Antarctic Journal of the-United States, Vol. 9, No. 4, p. 180-183. Kivisild, H. R.; Rose, G. D.; and Masterson, D. M. (1978) Salvage of heavy construction equipment by a floating ice bridge, Canadian Geotechnical Journal, Vol. 12, No. 1, p. 58-69. Kovacs, A. and Weeks, W. F. (1978) Dynamics of nearshore ice, OCSEAP 1978 Annual Report, Vol. IX, Hazards, p. 11-22. Kovacs, A. and Sodhi, D. S. (1979) Shore ice pile-up and ride-up, Paper presented at the Workshop on Problems of the Seasonal Sea Ice Zone, Naval Postgraduate School, Monterey, California, 26 February - 1 March 1979. Kovacs, A. and Weeks, W. F. (1979) Dynamics of nearshore ice, OCSEAP 1979 Annual Report, Vol. VII, Transport, p. 181-207. Masterson, D. M. and Kivisild, .H.R. (1978) Floating ice platform: offshore oil exploration, Paper presented at the ASCE Annual Convention, Chicago, Illinois, 16-20' October 1978. McKay, A. R. (1970) Man-made ice structures for arctic marine use, in IAHR Symposium, Ice and its action on hydraulic structures, Reykjavik, Iceland, 7-10 September 1970, Section 2.9, p. 11. Michel, B. (1978) Ice Mechanics, Les Presses de l'Universite, Laval, Quebec. Nevel, D. E. (1970) Moving Loads on a Floating Ice Sheet, CRREL Research Report 265. Reimnitz, E. and D. K. Maurer (1979) Effects of Storm Surges on the Beaufort Sea Coast, Northern Alaska, Arctic, Vol. 32, pp. 329-344. · Rogers, J. C. and Morack, J. L. (1978) Beaufort seacoast perma- frost studies, OCSEAP 1978 Annual Report, Vol. XI, Hazards, p. 651-688. Schamel,. D. (ed.) (1978) Environmental Assessment of the Alaskan Continental Shelf, Interim Synthesis: Beaufort/ Chukchi Seas, Part 5, Birds, pp. 152-173. Schell, D. (1974) Seasonal variation in the nutrient chemistry and conservative constituents in coastal Alaskan Beaufort Sea waters, In Environmental Studies of an Arctic Estuarine System, University of Alaska, Institute of Marine Sciences, Report No. R-74-1, p. 233. Selkregg, L. L. (1976) Alaskan Regional Profiles, Arctic Region, AEIDC. Tucker, W. B.; Weeks, W. F.; Kovacs, A.; and Gow, A. J. (1978) Nearshore ice motion at Prudhoe Bay, Alaska, In A Symposium on Sea Ice Processes and Models, 6-9 September 1977, University of Washington, Seattle, Washington, p. 23-31. Utt, M. E. (1978) Grounded ice islands, Paper presented at the Beaufort Sea OCSEAP Synthesis Meeting, Barrow, Alaska, 24 January 1978. Wheeler, J. D. (1979) Sea Ice Statistics, Technical Seminar on Alaskan Beaufort Sea Gravel Island Design, Exxon Company U.S.A. Attachment ADDITIONAL COMMENTS ON ICE RIDE-UP Ice ride-up is of great concern to North Slope natives and will certainly be an issue during presentations in Barrow. Ride-up or "Ivu" has been observed by the Inupiat on many occasions in the Barrow area. The advancing ice sheet has damaged structures and taken lives. Natives have reported that even the top of barrier islands have been. sheared off by ice. The most comprehensive work on the nature and occurrance of ride-up is that of Kovacs and Sodhi (1979). As the distribution of this report is limited, a copy is attached for your information and files. The report has been described as "bad news" by Exxon personnel during the Gravel Island Technical Seminar. Kovacs and Sodhi show that ride-up is a common event and that it can take place during the winter even when the ice is in excess of 4 feet thick. A summary of observed ride-up events along the north coast of Alaska is included in Table iA. Ice has also been observed to have ridden- up and on top of 30-foot high bluffs near Barrow. As ride-up events usually last less than one-half hour, little time is available f~r evasive action. Fortunately, the ice stresses associated with ride-up are low, less than 50 psi, and defensive measures may be taken to minimize the risk of ride-up. These include placing sandbags on the beach to resist sliding of the ice sheet; a berm may be constructed around the perimeter of the island to cause jamming of the ice and initiate pile-ups, and a buffer zone may be maintained around the well and camp to accommodate_any ride-up. We may also be warned of such events with.a suitable ice monitoring system. 23 Table lA SUMMARY OF OBSERVED RIDE-UP EVENTS ALONG THE NORTH COAST OF ALASKA (Compiled from Kovacs and Sodhi, 1979) Location Barrow Barrow Barrow Flax~an Is. Camden Bay Barrow Bart ow Lease Area Jane:re Is. Barrow Barrow Stump Is. Egg Is. Long Barrow Bodfish Is. Tapkaluk Is. Martin Is. Igalik Is. Advance - Dar e Wid:h Leu gth L 7/1892 11/1895 220 ft. 200-300 ft. many feet 7/i9i i937 1961 39.0 ft. 150 ft. 9/1975 160 ft. 9/1975 completely over-ridden 7/1975 25 ft. 6/1975 5 mi. 80 ft. 7/1977 i0/i978 11/1977 1/1978 290 ft. 80 ft. 130 ft. 2300 ft. 110 ft. comple:ely over-ridden 700 ft. 180 ft. 1 mi. 315 ft. Thickness 12-15 in. '8 in. 39 in. 60 in. 7 in. 20 in. 50 in. 36 in. 36 in. 36 in. Attachment ADDITIONAL COMMENTS ON THE ICE ROAD To insure safe utilization of the ice road the following should be considered: 1. Placement of stakes at 300-foot intervals along the road .and several emergency warm-up huts. This will allow travel along the road during poor visibility periods and shelter during white-out conditions. 2. Determine critical velocity for vehicles as a function of ice thickness and water depth. Place speed limit signs along ice road. 3. Snow removal and control should receive adequate attention. Snow banks along the sides of an ice road may overload the ice and cause the formation of longitudinal cracks. It is standard practice to clear the snow to a width of at least 150 feet and keep the snow bank height less than two-thirds the ice thickness. It is also recommended to keep a few inches of compacted snow on the ice for better traction. The thin snow layer will reduce thermal cracking and internal deterioration due to the absorbtion of solar radiation. 4. Advantage should be taken of the experience gained during the use of the Reindeer Island ice road (RIST well). 5. Safety procedures should be defined and given to personnel using the ice road. April 27, 1984 GEOLOGIC MARKERS Gulf #1-A Beaufort Sea Block 54 Cross Island Sidetrack, North Slope,Alaska KB 46' FORMATION DEPTH Sag River ~4273 Argillite ~4490 T.D. ~4534 SUBSEA (-~40~3) (-~4~63) (-~4~94) RECEIVED APR 2 7 1984. Alaska Oil & Gas Cons. Commission Anchorage GREAT LAND DIRECTIONAL DRILLING INC. REPORT OF SUB-SURFACE DIRECTIONAL SURVEY GULF OIL CORP. COMPANY CROSS ISLAND REDRILL #1 WELL NAME PRUDHOE BAY LOCATION SINGLE SHOT JOB NUMBER TYPE SURVEY DATE DON MASON ENGINEER NAME TITLE . SIGNATURE 0 14534 DEPTH INTERNAL FROM TO DATE SURVEY TAKEN 2-2-_.84 __ 3-17-84 FROM TO THIS IS A RECORD OF A SUB*SURFACE SURVEY OF YOUR WELL We have retained a copy of your survey report in our files for your convenience; however, should you so desire, all copies of the survey report will be forwarded to you on written request. All surveys are kept in a locked file and are held in strictest confi- dence. Additional copies of your survey report can be made from the original by any blueprint company. RECEIVED APR 2 7 1984 Alaska Oil & Gas Cons. Commission Anchorage I'-d:. _.] I F~NAI_ DR :[ LL I i',IG G R E fA'T' I_ A I',.1D D ]' '"' - ~ .... C I::1 ~ F:' I_ I'-- T I 0 N R E F:' 0 R T -' -I " .... ' ""(') '-'/~ U ::':; I N G I::;: A ][:l ]: U S I"] F:: I'~ CU 'VA'T'URE 'I'EF:FIN T f:)l IE i_.L MF LITE£1 ON ..:,-.,:. -,:,-.,- .... .... ' '1 C' ', '" , FI.,,LM ._,I_IRVEY DATA TAKEN 't F I N A L C:L OSI_IR E D I F~ E _. r I 0 N N :'::7.18 E .::,HL 1 .::,L I.~VEY '..:.; I N GLE '~' -I' ' '-' I - ' R E C: 0 R D 0 F ':.3 I_1R V E Y ( I:::' R Ej V I 31J'S '.::: I_1R V I:-- Y D A"I' A 'T 0 124 (")0. (")) GIJLF OIL CFIRP. C:IR 0 :::; :::: I '.:::1_. A N D R FZ D IR I I_ I_ ':I:t.' 1 [[IR I FT TRUVE:'I::~]' ::;I.. B'.::;IF.:A .::,1:.-.... I I ON ID I RI:ZC'T' I ON REI_AT '.1: VE C 3['"11::,,"['[ I I',IATI::'.::; F' R 0 FI W E L. L.-. H E A Ii -94.0.1. N 35.C)(:) E -::2:,(:,. :2: L-, Iq :32. '.:.~0 F' -.' 77.75 Iq :'::('). ;. 0 E -- /'_-, ',::: . 1:2, N 2'.:;:'. ()0 E:' I~' i-, .-'" --._,,:,. 1`C) Iq Z',:',. :::0 E - 4'7.44 Iq 27. :2',C) E -.:35.88 N 26.6(') E --- .1. :--:. '2'8 N 24.8(') F' z_-,. -7':2 N 2.=_,. 2C) F: .1. 8·94 N 24,80 E :2:2.48 N ':24.].0 E 46.64 Iq 24..1. c) Ii:: 61, :34 Iq 2:.:' :--:, 10 E 77.(")0 N 22.'7c) E 91,84 N 22,7(') [-] 108.80 N 21.:2,0 E 1 '::.' 5.6:'3 N 20.60 E'] 1.4'2.92 N .1.9.90 E 16.1..87 N 20.6C) E 1:'::1'74 14 6 1316:3.'.:~6:1.:3117.'~.)6 13204 1 5 30 1` :3192.9'7 1` :':: 146.9'7 1:32:35 1 6 .54 1 :::222.74 .1. :31. 76.74 1::-:267 18 24 1:3253. :2:3 1:':::20'7. :2:':: 1.":'":"--,':' ?,' '-"-":'"" '"'k') ':'":'":'/-- "::'"" · ...,.,.....-",,.., 1 4:::: 1 ..:, .,',-, -" .... .1 .............. ,..- '1:3:329 21 () 1` 3:311.5::'3, 1:32d, 5.5:::: 1:3:3/.:, 1 2."2 6 1:3341. :'::4 1:32'!;'5. :34 1:341` 8 24 :':: 01` :3:393. L', 9 15::347,6'? 1:346::-: 25 6 1343'."'.". 07 1:3:3':'.:'::::. 07 1 :':':4'?7 26 0 13465 · 24 1 :":~4.1. '.::,'. 24 '":' ~'; ":"::' :,:"'7 12 1`:E:47,'2 ."F.,'6 :1. :::44,/-, . '.:.,'6 1 .,..~ ... ,.,._ i_! · - 1:355'F,' 28 42 1:35'.:::0. :-_--:,4 .1.:3474. :.':-_:4 1:3.'-.";'--,'F', 29 42 1`..,.:,,..,4 7 4£) 1_ 1 ._ ..... . · %.., ._ ~.l # 1` :362:2 :':: 1` 0 1` :357.5.01` .1. 352'.:;' · 01_ 1_ 3651 32 48 1_ 35:'F,"~/. 6:'-: 1 :--:55:'-':. 6:3 13/_-,8:3 33 4:_::, 1362/.:,. 3:--: 1:35::-:0. :3:--: i :'::71 ~ :35 6 1` .3651.94 1_ 3/::,05. ?.:'4 13745 :36 12 1:3677. 13 1:3631.1.3 ! 377:--.: :';:7 ""/ .:, 70._-,. 5'2 1 :'-",/.,?~7 ~:"' .-_, '", 1` '-'' ' '~' .... ,, ._1 ..% r£:l_ f'.)SI_IRE l':i I ::i;'f' A N C E I'_'l G M N S 181.40 S 11 4. 6 :::0 W ].81.06 :::; 1_1 19 ·::25 W :L'"'/:3. ::::'? 'S .1. 1_ 5 5'"'...., WI .1. 7 :'::. 9'2'.E;10 26 0 W 1 ,":-"::' F; 1 '.::; ':' ~';":' ":' W .., .~. · .. ,_, -_ ._, 1. 48· 4 ~:~ '..:i;6 2_ 9. ":'._., .1.40. :2'7 S 4 24:2::3 W .1. :'::1. 94 S 1_ 55 1. 2.6.62 S C) 1_ 6 4 120.7:2: 'E; 1_ 40 .55 E .... · ~ E 114 .=:'P S :3 ._4 "'~ E 1(')7. .66 ':'._,6, ..:,4 .=~:::_ _ 9'?,'78 S 9 .51_ 46, E '? 2.26 S 1 "-"._, 47 1 ,_,':' E ::-]4· 49 S 1tI, .... :'::9 ""':.....~ E 76· 7 :'-'~ ':'._, 24 D6:2:~ E ~::, 4 """" ...... :'" · ,:, ,' S 40 :.:',i~ ._,.5 E · =;9,2?,' S 59 1'.-} :--:2." E . ':'.=] :3:3 .59 :'-':7 :--;71 .-._ E 62. :34 S 84 1:2:17 E /-, ::::. ":'":' N 84 7 .=,2 E '76,E:9 N '74 16 17 E :3'7.9C) N 66 0:3~ E ?:':'?, 61 N .=_,':-~ .=," ._7 6 E 1. 1 '.':: 9'7 N .54 '-~' 4:3 ...... U E 1. ':;.'::3.95 N .50 12 2 E _ o7 .5'2 E I44.88 N 4A '-" .1. 6, 2, ::2:7 N 4'.'": '-' · :,1 .57 F [ll:'.iFi; ' 'le ~, ,.' 0. C)00 0. '24C) 1.67 · ' % ,_, · 4.06 ._,'::' · 4 0. ::i: LI.':-.'~ .1.. ":' 002 .... 181. .:,. 87:1. 4.6'? :--: 4..5'.--: 0 · :, ,,~,::,.':: · _,, · · -" zl. 51 · ,,~' ~ · 4.. 245 :1.. 20'? ":' :[ 1 .% :'.::. 4. ::-:: :'2:'i.:',' .-.~ .-,. :2::2:2 4.07 /:,. :207 :'::, 406 4.2:5? · '", I-L' .':, ,_, · ...... 4 - ..,, ..... =, I F;LAixlD REDR Z L.l_ ~ .1. MEAS I]R I FT TR JVER] DEF]H DG MN DEPTH 13809 :39 013727.85 .':,o "" P']'-' 5 1 ....... 41 4 ("~ :30 1 .:., 7._ .,.-. 4 _1.:3872 41 48 1:3775. 1:38':'/:1. 42121 :'-: 7 :'-": 9.91 1:3906, 4:3:3013800, ,.-T~ 1 1 :':::':.)'-" ':";' 4 4 .... ' ') ':'.! .... ..:-,(. :L '-'""'""-' · ,,2, ,", .~..."., . 1:7969 44._451 '-'"" * ~'~ '-::~ ~-, _ . ,-',~.-.~ '"'F ._1., . _ `1. :3'.:.":7/'P 44:3/::, `1. :::F-:67.2'7 14 (:):32 45 6, 1. ::: R '.:..:' O./:,6, 1406,:3 45 18 1 :'::'.:.,' 12..51 14095 45:2'. 4 12'? :':: 5. (')(") 14125 45 1 :E: 1. :'::'.:;,' 56. (:) 14 :L 57 4-5 2(:) 1 :-':?"78. 14187;' 45 :-30 14(')01.04 _1. 42:;."C) 4,5 42 14(:)22.7:3 14252 45 4'8 14045. C)6, _1. 4:370 46, 15 1412/:,. 'F,".:;' 145:::4 46 15 14240.4(:) 1::4 E C: 0 R D 0 F ::~ U R V E Y D I R E C T I 0 N R E L. A T I V E:' C 0 0 R D I Iq A'T E S A N G L E F R 0 M W E" L. L.- H I:' A D D I S 'f' A N I'": E N :2 I":,, :3 (') Ii.:. 1 :'::6,08 N 1. 1,_,':', :::9 E 1. :: c:, . '7 C) , _ ~:'~ '= ":' .=] · 6,'? ........... N 1 ::'3 .':::;0 I'F: 1 ...... ,. :78 N 1 ~._ I!:' .1. ':::"::' ':"=~ N 1 ',B, 50 Ii'"' 1 '74. , '7 ::"": N ]. ":'..., "':'..,:_ , .'16 E: .,::.' .1. '::' , C:,. 8. N 17.8(:~ E: .1.'::6.81 N .1. 36. 1. 2 F 2:-'.':1., 14 I",1:1. '7. '2, ('). Iii:' .1. ':i:'/-.. ::,,.: ....... N ,1. 8.50 E 2.1. 7./.':,.4 N .1. 4/_',. 1_ 7 E :;:'4: 2. 17 N .1. 7,4. 0 Ii.::. :2:38. '::: ?.:' I",1 15'.?, ::3'ii:' ~:: '2 :::",:3. '20 N ,1. 9,5 0 E:"' 2 55:::',, 4 2 N 1 .=~':.:', 5 7 F' '3 ("):_:',, 7 1 N .1. 9 ';:'o E' '2 80 3:3 Iq 1/-,'7 '_;':":' I::' ::: . n ..... N -- . :.1_1 .... · N 18.8C) E: 30 .1.. ].8 N 174.44 E ::.:48.C) N 1:":i: :::0 ti'-" ":'"'"":' ' ....... . . ......... :.-... / .::: Iq 181 78 E :3'70, 4("~ N ,1.'7. F:()_ E ._,°42 . ':/':.)... N 1':"::',..,,_,. 4::: E _'-':':) 1 , 36,. .=' . ._7 E 41:3 /.:, N :1_8 ._,0 E :364.;:,1 N 195..~" . .... - N 1 '7. ::::0 E :~: :.=.:¢-, .27 N ":'.,_.02 .67 E 4:7__./-, 21 Iq 1 '7.40 E: 4. 0'7, ::::8N 20 ?.-~. :36 E 450. O'.'z: N 18..=] .... 0 E 42 ? . 18 N ,='~' 16, .4:7 E 4 ::::_ ("~../-,_. 7 N .1. '5 !501!: '."~ 10. :38 N 24 ,1. "" '= . _ . ~._, E 5 ./::, 4.5 :'z: N ]. 5.5C, E 5, 24.54 h,I 272. ':-..' 1 E 6 ::i: 1.5'7 C:LO'.:_;URE DG MN S N 41. :3 :'::7 E N 38 5:912 E N :37 614 E N :36 449 E N :35 ,1.'~) ,~7 E N :2::'-': 5:3 6 E 1'4:324025 E N :31. 41 41 ii-' N :'::(":, 4'9 :.1.'7 E N :':~C) 4 47 E N :;:'_"~ ';:_':'2:2'7 E N 2.:':-]: 47' 2:--: E N ..-:,c, ".'.'9 =,_, 12 .,_. E N 27 4:1. 7 F N 27 12 ("~ E N 2/:, 45 :z:'F' E N ""'"' P'~"' ...._, 17 E N 2:3 35, 16 E DO [.:i L_EE d e _~ / 10 C t*'- ."1 ,-- . ,_1 .:, .." i. '''! 4 "'.::~4 8.5,4:, ? .~, :.::(-).c 2 .t ':": i '....' · :, · ...~ ;!: ~ O. '.;~ 17 O. :31 :: 1. '71'; 1. :lll i. 22?; C). '724 1.7'P/I I. :.i::E:E: C). C)(-)C .¸7 DATA ·INTFRF'r:~I_ATED FOR EVEN 100 FEET F'IF: DE.-.F. I H MEAS. I"EEPTH .1. 2 ('~ 4 6 1214/:., 12246 12:2:46 .1. 2450 .1. '2 5 50 ]. "2/::, 5 0 12 7 51 12:::51 i '2'.:.? 5 2 1 :'::054 1:3.1. ;'5/_-, 13 2 5'::? 1 """-"/- 6, ,_i ._i ..i ]. :3476 13588 13 :--: 33 ! 4 z_.J.:, 14397 IRJ VERT :::lIB SEA MD TV DE P TI..1 Fj El::' T H [] ]: F'F::. 12 0 4 6, 12 0 ()0 0 12146 ]. 2 .1. 00 :L .,:..,c. 4 ::, :L 2:2 0 0 .,_ o4 6 :i. :2 '-': O0 0 1:2 4 4/.:, 12 4 0 0 4 1 .,.._ ... 4 6 :1. 2 .~'i ~") 0 4 :L :2646 1 :;76 C)C) 4 .1. 274. 6 12 '700 1 "]~ ~-~/'1 Z .. ,:, ~,:, 1 ':~' :.3 C)0 5 '-., ,:,, 41./. ... 1 ,:. ..... :L :2'? (")(:) /., · 'l (' L ._-, .) 4 6 1:2:0 0 0 ::: 1:314 6 ! :31 t")C) ]. () 1 :'::...,.9 4/-,. ]. 3:200. :L ":'._, · -'11 ."'l ~. _ 1 .:,.-, 4 :, 1 :'3:30 () 2 .'L "" / . . .:, 4 4 '-, .t :':: 4 0 ]....,"-" .~._ _4/- _, .1. ':' ~"q (')() 4 ":' 1 :.36 4 6 ]. 3 60 0 6 1 1 .,, 74 '-, :L :37 c)C) 8 7 .-i 1 ..:,,:, 46 .1. ::3 :::: C) C) :L :2:3 · -, .c-/ ,z. .... ,.-- 1.._-, .-. 4 =, .1. :', 9 C)(] .1. 6.:, .1. 4 C) 46 .1. 4 C)0 C') :20 7 14146 i 4.10 C) 251 V E R T I C A L f':: 0 R R E C T C) 0 0 0 4 0 (.-) 1. C) :L .1-~l 7 10 2 6 :36 42 4~ 44 RE:.LA I I VE COORD I NA"FE:S F'IROM WIEI_L-HEAD 0.00 0.00 O. 0C) O. ()0 3',L::. 3.1. W :37.4:~', W :3/:,. 4? W :34.00 W 10, 6:3 1, (:)::ii: 15. '?'7 ::-:: :3.2 i 52. :'_::']~) '7:3.7 0 '::?'7 L ]. :2:3, ':.? 1 !52. '~.? SF", I:." ,: .....:32 2 ]./_-,. 74 24.6.5/: ":ROB::: I'.BLAND REDRILL ~1 :3-20-84 D A T A I N T E R P 0 L A'i" E l"l F' 0 R E V I:.'-" N :1. ,r'D 0 (:~ I::' E E T 0 F M E A S LI R E J["l ]"1E I::' T 1-4 MEAS. TRU VERT SUB SEA D E f"' T H D E I=' T I'"1 DIE F' "1" H 1 ,r'D 0 ,ri, 1 ('~ 0 0 'i;:' 5 4 :2 0 ,r'D ('~, 2 ,c"~, 0 ('D ]. '?/5 4 :3 0 ('D 0 :3 0 0 0 2 '.:::" 15 4 4 0 (ID 0 4 0 0 0 :?, '..'7.' 5 4 5 0 0 0 5 0 0 () ZI.'p 5 4 /=, 0 0 0 C-, 0 ("D 0 .5 '.:.~ 5 4 7 0 0 0 7 0 0 () 6 '.:;' 5 4 8 cid 00 8000 7 '? !54 ? 0 0 0 '.:.) 0 0 ("D 8 '? 5 4 1 0 0 0 0 10 0 0 (D 'ii:' 'i? 5 4 I 1 ,~:~ 0 ¢) 1 '1. 0 0 (') :L (:D'? 5 4 .1. 2 (:~ 0 0 .1. 2 ("D 0 0 J. :1. '~.'/5 4 1:2:0 0 ('D 1 2'F.' 'F.' 3 1 ':~:'ii:' 4.7 14 0 0 0 1. :=: :=: 6 8 13 ',:i', 2 2 R E L. A"f' I V E C f'i 0 R I]I N A'I" E S O. ("~0 0. ('DO ("~. ("Dc:D 0. ('1 (i ('~. O0 0. (") O. O0 O. ()0 O. ~"1 ('~ O. ()0 ¢~,. 0 () ("~. ,r':,O O. 0(') O. (':, ("1.0~:} (). 0 0. O0 O. 00 ("D. O("D O. 00 ('). (] ('~ 0.00 O, O0 O. O0 14/:. O:i:-': S 15.73 W i;:.: 5'?. ,~:~ 8 N .1. 5'?. 8 (":, E v x TV[} LS. OO {7. oo VERTICAL SECTION I GULF OIL CORP. i CROSS ISLAND REDRILL #1 O I RADIUS OF CURVATURE o,. I i SINGLE SHOT SURVEY ] . SCALE: 1 inch = 2000 Feet i I DRAWN: 3-20-84 1' · i , · Departure ( Ft x l[IDO ) Notes: All volues in Feet. Depths sho.n mre TVD. Closure: 682 ft ot N 23 de9 3§ min E Bottom hole: TVD 14240 TMD 14534 Mo§netlc declinotion: 31 de§ 30 mln E HORIZONTAL VIEW GULF OIL CORP. CROSS ISLAND REDRILL ~1 RADIUS OF CURVATURE SINGLE SHOT SURVEY SCALE: 1 inch = 250 feet DRAWN: 3-20-84 Ill l' . ~::;F'ERRY-SUN WELL SLIRVEYING COMF'A~Y fgI_ILF OIL EXPLORATION AND F'RODUCTION F:Fi BEAUFORT' SEA BLOCK' 54 #1' W I LDCAT ALA'.-]KA VERTICAL SECTION CALF:ULATED ALONG F:LOSURE .......... TRUE ~ ~ .'-~ _ _ '- · _ L B-._ EA CF~URSE MEASLIRED VERTICAL VERTICAL INCLINATION. (' -F'TH DEF'TH DEF'TH DEG MIN 0 0.00 100 100.00 200 200.00 300 299.99 400 399.99 500 499.99 600 599.98 700 699.98 800 799.98 900 899.98 1000 999.98 1100 1099.98 1200 1199.97 1.300 1.299.97 1400 ....... 1399.97 1500 1499.97 1600 1599.97 i700 1699.97 I800 1799.96 1900 1899.96 2000 2100 2099.96 22£)0 21.99.96 2300 2299.95 2400 2399.95 2500 2499.94, 2600 2599.94 2700 26~9.94 28£)0 2799.94 2900 2899.94 -46.00 54.00 154.00 253.99 353.99 453.99 553.98 653.98 753.98 853.~8 953.98 1053.98 1153.97 1253.97 .... 1353,97 1453.9'7 1553.97 1653.97 1753.96 2053.96 2153.96 2253.95 2353.95 2453.94 2553.94' 2653.94 2753.94 2853.94 ~ F'AGE 1 ANCHORAGE ALASKt~ ~ · E DATE OF ~LIRVEY DECEMBER ,~, '1983 ~ ~ ....... ~"'s~ .... ~ROSCOP IC-' SLIR~Y ......................................... ~OMF'UTAT I ON'DA .... ' ~ ........ . ~u,~ o DECEMBER 27, 1 ~ ~ A dOB NUMBER AK=BO=30138/40004 ' ~ ~ ~o ~ KELLY BLISHING ELEV. = 46.00 FT ~ ~ g ~ OPERATOR-dOHN SAME~; ..... .:7 ~ :, i.n~lr,~~ ...... 0 ..... DIRECTION SEVERITY~ RECTANGULAR COORDINATES VERTICAL DEGREES DEG/100~ NORTH/SOLITH EAST/WEST SECTION N 0.. 0 E 0.00 0.00 0,00.'::~' .0 O0 N 1 30 W 0 41 O. '~ , . . o6 N 0.01 :W -0 N 8.50 W ............ 0; o6 N 11.89 W 0.03 1.77 N 0.20 W -I.69 N 43.10 E 0.42 ~'~'. 44 N 0.02 E -2. oo'"'-' N 7 () W 0.4'1 .... 3. I~N ..... ~ ....... ~ N ~4 89 E 0 '-'":' · · .o,o 4,13 N 0.47 E -4.13' N 3i 50'E 0 .o0 N 0.80 E -4.86 N ~ :- W 0 1'7 5;'08"N ................................ 0';"80-~' ......... "~: N 10 60 E 0 17 5.'"° .- . . ~. N 0.74 E ,-5.¢:1 N 69 80 E 0 '" '''~' ~ '-'" · .~.z~ .-'. . ~ E N 66.10 E 0.06 5.57 N 40":E:?' .... 74 N 34.30 E 0.16 5.87 :N 1.77'E. -6.1! N 41.30 E 0.10 6.30 N ~-6'~1 N '44, 89' E 0',"05 .............. .............. 6'"'7'~"N :"~"'"'~'~':' N 61.50 E 0.09. 7.07 N ~.'~' 95 E -7..., ~4 N '~": 9 . . · ..... ~y.1 E 0 17 7 40 N .::.~:1 E -7.9.5 N 18 80 E 014, 7 '" o ,,~;,~,,,,,~,. ............................ ,,. ...... : , · --~ . ~ ':;, . ; ~ , N =.r, ~ E 0. .... ' . · . ,=,.~ 8 56 N .4, 0~:: E -9 ,: N 47. 0 E 0.37 9.00 N 4.~]S:~I,]E .--9. 78 N 32'80 E 0;' 13 9 :'36' '"'N 4";'"87~:z':==::: ............. N 67 ':":' - ~,.Y E 0 19 9.67 N 5.':":' · . ~ E -10.57 N 60 10 E 0 '-' " - , ~, .~1 y.94 N = 74 E 10 N 39 ~'F E 0.~6 I0.2'7 N ,.. , . N 55 '~'" .:,0 E 0.67 10.83 N . ~,r,,, ',:, ,~, · a E : ':.:: : -1~.:07 : , : N , , N I6.'~' O.~,J II.c,o N T. IO ~ -~.I1 ': .... '~ 69 . ,-, ..:,,.,. W 0 49 1i.o6 N c, 16.19 W 0.20 11 . ..'~":' N,.. N .o~ E '0.47 IO.~E~"'N 84 "-°' 7.03 E -13,11 6, 79 E -12.53 6 ;' 787E":'::7 '?". .......... ~'! 2"; :I 9" : SF'ERRY-SLIN WELL SI. IRVEYING C:OMF'ANY ANCHORAGE ALASKA GULF OIL EXPLORATION ANTI PRO£1LhZ:TICiN F:Ei BEAUFORT. SEA BLOCK 54 ~1 COMPUTATION DATE WIL. DCAT DECEMBER 27, 1983 ALASKA VER'FICAL SECTICIN CALCLILATED ALONG CLOS;LIRE PAGE 2 FIAI'E OF SLIRVEY DECEMBER 23, I983 -- · ..si Jr-- ~ i ' BI3::]::; I_~YRCI,=.CUF I~""Si'IR~'E9 .................... ,_lOB NLIMBER AK=BO=301:38/40004 KELLY BUSHING ELEV. = 46.00 FT. OPERATOR-JOHN SAMEC MEASURED (' -PI'H :=:000 3100 :3200 :'::300 3400 :3500 3/.:,0C~ :=:70C) 3800 :3900 ;I. 000 4100 4200 4300 4400 ( 4600 470F~ 4800 4900 5000 5100 5200 i~=i .'-j . ~ 5400 5500 5600 5700 5800 TRUE SLIB-:=;EA CFN_IR:=:E L-:CII_IRSE DOG-LEG VERT I CAL VER'F I CAL I NCL I NAT I ON D I RECT 101"4 '.:-.:EVER I 'T'Y DEF'TH DEF'TH DEr',; M I N DEGREE:=; BEG/10¢::, 319 ~.) '-? 2 :31 .~":' ':~ :3 0 24 '::' ':' * . { . { II ._l, .. ._i "1· I~-'l~~I-II'' N (~) m 4IF/ ..:, <,c~,:/ 93 ":"-' ~='- 9:3 C) 26 S 1 '? 60 W 0.08 ::::399 ':~:':: .:,'-"-' ~- '-'..:, ._, .:, . 9::: 0 :30 S 18 19 E 0 ":'~ 3 ~ 9'~ 92 "" ' %'-' -' .... o ~._ .:,. 72 0 .... '"' . .:,~ ~, 0 50 W 0 ~7 '-,=o,:~ ,p2 '-' = =''-' 9'2 0 :36 '-' i ~ :39 W 0 16 .J~.. ~.. ,:,.J,.I.:, . , . ,~, ,J. :3699 91 '::'F ~':' ';~ 1 ('} 40 '=' '-' .. ~' ........... =,. 0 W 0.11 3799 ....... 91 ._,':' ? P; '='- ._ ._,. 91 F') 40 S 6 ~;0 W 0" u..,' ':" ,--i I-i i- i- .:,,~ Y ~ 90 ":":' ~'=' 90 () :3:3 '=' .... ,- ............ 6.o0'-" W 0.~1 3999 90 '-":¢ =''''' ..... . o::._,.:,.70 0 2A_ S ~b.50 W 0.~1 409'~. 89 4 F~ .... 5 :':::. :::'~ () ~:"-'z. S 20. 0 W, 0.08 4199.89 4 i 5:3..:.'-";¢. 0 21 '.3 =':'c, ~ . :30 W 0 .04 ~,.:: W 0.11 r 4 -- .;, ,, 4399 '88 4:353.88 0 '-"" . . ... ~.:, S 15 69 W 0 15 4499 87 44._, .:,. 8'7 () =; '= . ._.:, S 9.. 8C) E 0 . =i':'~ 4599.86 _a '~ =i ':'._ ._ ._,. 86 0 52 S 0 .80 E 0 .15 4&,99 85 4653 '""=- . ,:,._, 0 ._1 S '-' 80 W 0 ()6 ,: ,2 iz[.'-, . . 47 / .~. 84 47 ~ .:,. 84. ('~ 42 S 0 10 W 0.17 ,:, .- :, 84 '-' 5"' c. 4.= .... :,.:34 0 44 .:: 39 W 0 06 '4'999.:~o~'" 4'=;~;'=: 83 0 31 S '~ :L9 W c,.-', ._l~) ~ ~ '-'"" . o ~ % .... (i Fi:=: . ~.,c, ~'=' () 27 S ....'="=;. 1 () W 0 . 1 ._, ~ . ._,~ ._,.s, ~,.s,. :~ ~' C) 3 G .~,'-' G 2 19W 0. 5 G 99 81 ~=i" ~-''''' '::' '="=' .... ~._,.: ..... 1 0 45 '.E;.=,""""'~. %(') .... W () . .~ 559~>. 80 ~='-'._ ._,.:,. 80 0 46 S :36.8C) N (). 06 . .. =,._,,:,. 7'? () 49 S 28 . 10 N 0. i .:,"" 579. 9. . '78 ._,= / ~._:;.:,'''' . 78 0 4. E: S 30.5 () N (). 04 % c, 9'~> 76 ~='""='"'" 7 ...... ...... = ..... -', 6 1 :~ :=, 9 6'P W () 48 TOTAL REF:TANGLILAR CF~ORD I NATES NFIR]'H/SFILITH EASI'/WEST 10.88 N 10.86 N 10.6,'1 N ':?..91 N 9.12 N 8.23 N 7.2/, N VERT I C:AL SECT I ON 6.85 E -1'" · ~.11 6.77 E -12.07 .... 6';;5'~'~'B' ....................... ~' I'1 .:- 7'F,' .......... 1 .--f . .:,--.E -" ! 1.05 6.40 E '- 10. ~..~""'= ...=, -y.' 45 .... :~ 47 6.17 N 6, 17 i::E:.: -7.3/=_. 5.01 ........ N 6";'"02~':E~:~''''''~'''''': .............. =6;20 ................ .... '-' 94 N ~--' .... ,:.. .':" 0 E · =,.11 N 5.68 E -4..:7 '-' 46 N -3.'58' ~:~. · , 1.88 N 5. lm iE:,:~" -z'''~.~.~ 1.26 N 4.80 E: --.-.-.27'"' 0. s';"N 4;'"46:"~''L-': ....... i ................. -1.4o 0.67 S 2.23 S 3.75 S 5.11 S 6.36 S 7.4 8.28 S 8. '.:.76 S '.-:~. :'3'.:.~ S 9.88 S 10.81 S 1 I 91 :' ii . 13.10 S 14. :34 S 1 ~'-'' '..?:=: S 4.49 E -0.32 4.6:3 E 1.17 .4 .' 6 !::':'.[7 :: :: :::: :'::': :2.66 : 3, '.;'9 4. 5,23 4"; 4'2:'"'~E ................... : 6 ,~33 4.18 E 7.18 4.06 E 7.86 3, '~6 "E'. "':' 8, 3.48 E : 8.8'F.,.' 2.7¢, E 9.94 2', 0:3'""'B .................................... 1"1', 1 ¢~ 1.28 E 12.50 0.58 E 13.88 0.05 E 15.54 '..-];PFF,:F;;Y-::;LIN WELL SLIRVEYING COMF'ANY ANRHORAGE ALA:_--;KA GOLF OIL EXF'LC[RATION AND PF~'i:)£,JCTiC~Iq F':O .... 4 ~1 CF~MF'LITA'I'ION DATE BEAL~F'ORI' SEA BLOCK ¢ wiL. DF:AT DECEMBER 2'7, 1 A L. A :::; I'::: A VER]"I_.AL SECTION CALF:LILA]"ED ALONF:i CLFi:::;LIRE F'AGE :2: PATE OF SLIRVEY DECEMBER 23., 1'.-]83 BOSS GYROSC..OF'IC' SLIRVEY'- ............ ,JOB NUMBER AK=BO=30138/40004 KELLY BLIF;H:[NG ELEV. = 46.00 FT· OF'ERATEIR-JOHN '.:;AMEC TRUE SLIB-SE:A COI..IF,:SE CCdJR.'_:;E DF]G-LEG I"IEA:SURE ri VERT I CAL VER-f' I F':AL I NCL i NA"I" I ON I.'.~ l REC'f' I ON :'-";EVER I 'f'Y i' !:"I-H [ EF I H DEF'TH DEG M 11'4 DEGREES DEF:i/100 6000 5999.75 6 i ('-~ 0 6099.7:3 6200 6199.71 6:300 62.99.71 ,'2.400 6399.7C~ /3,500 6499.70 6600 6599.7 F~ 6700 6699.69 6800 6799.69 6.,'P 00 6899.68 70 0 0 6999.6:5: 71 CiO 7099.67 7200 7199.66 7300 7299.65 7400 7:399.64 7500 7499.64 7 >, c) c) "' = 9":~ 6:21 .... /._17 2 . 7 '700 76 '.'-] 9.62 7:300 7 799.61 75'00 7899.61 :F.:(iO 0 7999.59 ;F.: i 0 0 L:: 0 99.5 :-3 :5:20C) :3199.57 ;3 ::: 0 ('~ :5:299.5/:, 0 4. (:~ 0 o'-' ..:,'-' "Y '-~. ='._, ._, :::~ 5 ("} (] 849' 9 =' 8600 ':' = o..'.-, N 4 8 70 (] 86, 9 9.. ...=l .::,'-' S 800 8799. Si '2 ;:::: q;' (-I ('I ,-,'",," 0 · - . TOTAL .......................................... REC]"ANGLILAR RF,'3F~D I NATES VERI" I CAL N 0 R TH/'.:~;0 LI'I"I.-t E A S T / W E ST SEC ]" I ON ., 7 '"~' I""l . / ,L-i .1. 9. ,. 4 :~'.'; · '2 ~ "'.":''-' :22.4:2: S .....-., .-.~ '.-"._':,. :5; ..", .':24.42 S ":,'=l 4:,.2 S 26 ,, 46 S .'"l ~.'.'7.44 ::3 :28. :36 :iii; ::i:i~>. :3:3 :30.4.4 .'3 :3:l. 70 .:,"' · :,..,:.. 94:3 :33. Lq1 ~"".'; :2:4...4:ii: ::3 "" ~5..,:.'~" ('.) '"-" :37 02 '"' . . 4::, :38.17 :S '"""::' ~5/- ':' 40.92 S 4:2 .... '""' . ~.,..- S 4::::. 41 E; 44....o .... 45.67 S 46.9.._"."., ..,':' 4:3. :2:8 :.3 4'P,, ',q6 S 5 il.. :37 S O. 22 W 17.40 0.46, W 19.18 0;7'I ..... W ................ 20. :i:7' 0.80 W 22.07 ('). ,-, ,:,..., W 2::"_4.0 C:, 1.03' W 24.06 1.17 W 25.07 1.~.. W 26 10 I"';'3'9"W 27:'09 ...... 1.76 W 2:E:.(37 '-' ":":::' W 29.1 '-' ,~. ,, ~ ~...~ . . ,.:, 2'" 66: :W' 3(). :29 2.94 W :31. F-J8 2.79 W 32.76 2, 0 ~'"'~W~ 33, ~45 ...... 1.13 W :::3.85 O. 22 W 34.40 0. :54 ': E' ,:,'='._,. 11 1.25 E :35.86 1.80 E 36.86 2':"2 ..o""E 38 '. 'I"1 2.91 E 39.31 3.42 E 40.47 3, 73:'E'i ' 4I. 56 3.98 E 42.62 4.21 E 4:3.6/_-. 4 ;'37""'E" 44,86 4.49 E 4,/_-, . 24 4.69 E 47.65 4.61 E' 49'.14 S P E t::~ R Y - :":"~ Lllq W E L L S L.I R V E Y i N G C 0 Pit:::' A N Y ANC:HF'~RAGE ALAF';KA GULF Ii IL EXPLORAT'~AN ANi'i F'F'~C~DLJF:TI'AN CO BEAUFORT SEA BLOCK 54 ~1 F:OMF'UT'ATIL-q'q DATE WILFICAT DEL-:EMBEF~ 27~ l ALASt<A VERTi:F:AL SEF:TION C:ALF:ULATED ALONG CLF'iF;LIF~E F'AF~E 4 DATE OF F;LIRVEY DECEMBER BOSC; GYROSCOF'IF: SLIRVEY ....... dAB i,,II_IMBER At':::=BO=:_::Oi38/40004 I<ELLY BLIF;HI'NF:; ELEV, = 46.00 FT. OF'EF;:A'TCiR-._IC*H N SAMEC TRUE :!J;L. IB-- ::::;EA 1-:0 Ui::~SE C OIJl::~ SE.:. riCiG-L[.:-G M EA::~;LIREFI VERT I CAL VER'I" :£ CAL I NE:L I NA'i" i ON ['i :£ R E.'. F:"F l FiN :.:.;EVER I 'l'Y (' ':'Tt-t DEF']'H F] [E F' "I" I4 DEG 1'1:1' iq Fff"-GREE::'~; DEG/100 ]" 0 T A L ' ................ RECTANGUL_AR (":Fi :'iRD I NATES VERT I C:AL I'~OR'I"H /'S '- U"FH E AF;T/WE'._:;T SEI-:]' I fin 54.84 ::2; f::/- 9".:' '::' 5'.:.;'. 25 F, 1. 7("": ._,'=' /.':,6 9Fi '-' ... , _ ..'::~ 6'F~. ' '=i 4 .... S '7:1. "= '= S ~ ._1 ..j 7:3.1':.? '.'2; 74. "} ~':' ' .... 76 '"'"-' . ,:,.=, '7',iii;. 56 ._,':::' 80 11 ':' . ~ 8:1.5:::.': '.:i; ~32.7'7 S (::', :'::', 9".:, '-' ,, . .,. 4:, ~'2,6 ,, 56'.'2; F.';8.7'F~ S '::) :1. '""(' "" .. . ,=)..Il ,::, '? 5 ":"; =' ..... , :iii; ':';' 9. 'i?(:) c. :1. ()5, 5 i 1 (:)F. ::3:3 '.=; i :1. 2 ,, '.:.:'7 .1. 21 :, 7 :I. 2'ii;', 5'7 S :L 37 ,. ::.:::0 '.=:; :1. 44.4 :iL 3.77 E 50.92 2.12 E 53.06 0.04'"'"'W .................... 55.57 ' 2. F';4 W 58. 5. ::-:4 W 61.42 ,:,, 3'7 W 64.6.5 11.46 W 67.84 14.54 W 70. ':T~5 18 ',0.=.=" W 7:3.77 22. :'-':'~ W 76. :30 26 ":~'"" . · ::.::, W 79 02 31. (')6 'W 81.74 34.02 W 84.08 :35. '.:.~'.~ W 86.02 3'7","52'"W L:: 7.7':~.'..: ' 3A. 92 W F:'.-7~. 25 40. :2"~ W 9 (). 66 41.2~3 'W '.:.;' 1. '.~6 42.02 W '::~:3.6:3 42.87 W '.:.~5. 'i98 43,' 78'W '.~-!..). I2- 44.67 W 102. '.~7 45.57 W 107.41 46. :2:9 W 11:3.07 46.72 W 116.4.3 46. :i::0 W 120.. 44 46, 53' 'W 128:87 46.41 W 136.56 45.96 W 144.01 45. :31 W 150.81 SF'ERRY-:~.'~;LiIq WELL SLIRVEYiNG COMF'AtqY A i"4 F: H O i:;: A i"'~ E A L A F-:;I< A 131_~L.F iZi~L EXF'LORATION AND F:h::;~iZiEiLii-:T'Ti_-IN Cf'l BEALIFORT SEA BLOC:K 54 ~1:~1 F:CIMF'LITA"I'IL-IN DATE W :[ L DCA 1- DEr-: EMBE'R 27, 19 .:::.':: A L VER'I"IF:AL SECTION F:ALF:ULA] ,'".L ALANG C:LFI::3Lit::;:E F'AGE. 5 DA'TE OF :'2:URVEY DECEMBER 23, 1983 BF~'._.::'.E; GYROSF:OF' Z C: L=;URVEY ..... dOB NLIMBEF~ F"d<=BO=:30138/40004 KELL.¥ BUSHING ELEV. = 4/.:,, ,::)0 FI'. (]F:'ERATOFZ-.JCd-~N SAMEC TRUE I~'1EA:::;LiRED VERT I F:AL ( ':'"I-H DEPTH '.il LI £-: ..-. :.:; E PiI": I.] 1._1F~ t~i; E C I-i IJ R :E; E D 0 G- 1_ E" G T A T A L ....... VEi::~ T i: CAI_. i NCL i I'qA T 1' F-)N i3 :t. I::;~EF: ]' i ON SEVER 'r 'T'Y RE:E:"i"ANi3LIL AFl: LW"~O F;:D I 1'4A TE::; VERT I E:AL D £-_-F' ]"H DE/G I"1 :[ N DEC~REES ]']FZG / 1 O0 N(]F:;J-I"H/' S(':IU'I"H E'AST / WE'.E;T SECT I ON 1 i 900 11 :E:96. :2:0 12()00 11996. 10 121 C) 0 12095. 90 :1. 2:2 00 12195. S 0 :12 :'::', C,~ C:, 12295, 70 i :2~ C~,F~ .t. 2395.60 PI D R I Z 01'4 T A L D I :':;F'L A E: E Fi E:rq T = 1 7 8, 5 1 F E: E"I' A'T' :-2; 0 I..I'T't-.I :1 2 1] E G. :'"i: ::::' f"i :1:I',1 ,, WI.::-' S'T' A 'T' i';t FI = 1 2 4 0 0 'THE F:ALF:ULA]'ION I::'ROF:EDUF;:EF.: ARE: BAF;E'D ON THE LISE OF 'THF:;tEE DIHE:N'.::;:[ONAL RAD'[L.I.:-; OF CUF:~VA]'URE METHOD. J"-i R E. Al TL A/N Et D ]' R E f":T 1' t'"li',,l A L FIR T L.L. T N cr'.)MPL. E]'~FiN REPf"iRT COMPLiTED ON 3-20-84 USINE~ RADIUS OF CURVATURE 'FECHNIE..!UE FROM SURVEY DATA TAKEN FINAL CLOSURE DIRECTION N :':':7.18 E '.S INGLE SHOT SURVEY RECORD OF SURVEY (F'REV I GUS SURVEY DA"I'A TO 12400.0 ) GULF IZiIL CORP. CROS'.:; I'.::;LAND REDRILL #1 r 'A'.3 [iR I FT I'RUVERI' SUB'.":;EA SEC'I' ~.._P'I-H DG MN DEPTH DEP]"H Fi I 12400 12615 12690 i 2'7:3:3 12802 12 ::: 94 12989 1:3052 R E IZ:T II]IN I:~: E L A'I' I V E r": i'"i["iR D T N A 'T' E S ANGLE FROM WELL.-HEAD 1 16 12:395.60 12:34'.:).6CD -162.:2L', S 25.50 E 0 45 12610.57 12564.57 -16:3.::::6 S :3().00 E 2 0 12685.54 12/",:3'i:). 54 - 162.93 N 2/.:,. 00 E 3 30 127:.2::3.49 126:'2:7.4.9 -160.66 N :'::2.20 E 6 6 12797.26 12751.26 -155.31 N 34.:30 E 9 15 12888.42 12842.4.2 -143.10 N 28.50 E 9 30 12982.15 129:36.15 -127.69 N :;:6.50 E 8 18 1:3044.39 129'P8.:39 -11'7· 94 N :.'::9.60 E 1:3112 11 18 13103.51 1:305'7.5:1. -107.7:3 N 3'7.50 E i :314:3 12 54 131:3:3. :32 1:30F:7.8:,:.~ -- 10 i. 24 I',1:34.7CD E -94.01 N 35.00 E -86. :3/:-, N :32.9 CD F' -77.75 N :'E:0.10 E -68. 1:3 1',1 29.00 E -58. 10 N 28.:3('D E -47·44 N 27.:3c) E -:35.88 N 26.60 E -13.78 N 24.:E:0 E 6.72 N 25.20 E 18.94 I',1 24. :30 E 32.48 N 24.10 E 46.64 I',i 24.10 E 61:2:4. i',i ...... ' . .Z.:.. :1. 0 E 77.('D0 N 22.'?() E 91·84 N 22.7(} E 108.80 N 21.:30 E 1z._,'-' '=' . 63 N 20.60 E 142.9:2 N 19.90 E 161.87 N 20.60 E 1:31'74 14 6 1316:3.9'6 1:::11'7.96 1:3204 15 30 1:3192.97 1:'2:146.97 1:3235 16 54 13222.74 1:2:176.74 1.'"'~67 18 24 1:3253.2:3 1:3207.2:3 ~ '9'"' 9 . _; o i 48 1 .:,'-' z'-',:.'-' ~"". ~;~ = ''~' 132:36 . ...=;,":'. 1:3329 21 0 13:3~1.58 13265.5:3 1:3:361 22 6 13341.34 1:3295.34 13418 24 30 1339:3.69 1:3347.69 1:3468 25 6 13439.07 13:39:3.07 1:3497 26 0 1:3465.24 1:3419.24 13528 27 12 13492.96 1:3446.96 1:3559 28 42 1:3520. :34 1:3474. :34 1:3590 29 42 13547.40 1:3501.40 1:3622 :31 0 13575.01 1:3529.01 1" ~; ..... ,:,~ .... I Z:Z 48 1¢' ~ ° ':)o ._. ..- re. 6:3 1'''' =' =:' ''''.:,._,._, .:, .6:3 ~:36:3:3 :3:3 48 13626. :38 1:3580. :38 1:3714 35 6 13651.94 1:3605.94 1:3745 :36 12 1:3677.1:3 136:31.1:3 1:3778 :37 36 13703.52 13657.52 _.LU.:.URE [fOG LEG DISTANCE l'iG MN "S de_q/100 1'78.50 S 12 32 51 W 1:31.40 S 11 46 30 W 1::::1.(]6 :~; 11 19 25 W 178.87 $ :1.1 5 55 W 17:.2:.92 S 10 26 0 W 162 ~;1. Fj '-' ' .... .... =. 5.~ 2 W 148.4:--: S 6 29 35 W 1.40.:2'7 S 4 24:33 W 1:'2:;1..94 S 1 55 11 W 1:26.62 S 0 16 4 W 120.7:3 S 1 40 55 E 1 il 4. =;"' · .:~ S :3 54 5:3 E 107.6~_, S 6 34 58 E 99.98 S 9 51 46 E 92.2. L-, 'S 13 47 18 E 84.4'P S 18:39 29 E · -' .~,4 E 7 L-,. 7 ::.: S ~4 56 "" 64.:32 S 40:32:35 E · . :'/ ......,~ E 59.3'? $ 71 25:3:3 E 62.34 S 84 1:3 17 E 68.:i.;.:2 N :34 7 52 E '76.89 N 74 16 17 E :37.'~)0 N 66 0 34 E 99.61 N "-"'" .... ,.-. 57 6 E 11:'3.97 N 54 30 43 E 128.95 N 50 1:2 2 E 144.:38 N 46:37 5:2 E 162.87 N 4:3 31 5'7 E 0.0 00 0. 240 1. 679 3. 125 4. 063 :3. ""~'"" 0. 349 1. 908 .0 (..) ..' 5. 181 3.871 4. 693 4. 580 4. 700 4.524 :-':. 451 4. 245 1. 209 's' 115 3. 900 4. 839 3. 322 4.076 6. 207 3.406 4. 259 3. 635 4. 315 F:ROS:S ISLAND REDRiLL ~1 3-20-84 RECORD OF '.SURVEY MEAS DEPTH DG MN DEPTH DEP'I' H 1 ~'~:::: 0'~) 39 0 13727. :% M 13 d,81. :35 13841 40 30 1~7~z.45 13706 4o ~' '372 41 48 13775.79 1:372t).79 'i .~:8'F~ 1 42 12 1 "' '""?. . . ~7c,; 'F~i 13743 91 13'5~06 43 30 13800.'F~1 13754.'~)1 137238 44 30 13823.5~3 137'2'7.'P3 1396?' 44 54 13845. ?)6 137'?'iP. '?6 1 ]~:7297~ 44 36 12:8d, 7.2'/ 1 ~2::E::2 1.27 - .'"m .'} 40.~,~ 45 6 13890.66 13844.66 14063 45 18 13912 51 lc, c, 6s .... 1 14 (')95 45 24 1 .J P.z,._,. 00 i 12:88 ?~. 00 141"~='~.., 45 18 13'~56.08 13'~)10.08 .~,,- - ,- 141 ._ 7 45 20 1 .~ ~ Zd...,='-',~ 1 3932 . ?l:::_ _ 1418'F/ 45 30 14001.04 1'-''? =- ~' .c, ) ._, ._, 04 l_~a'~")O. 45 42~4 aA'~')..~ .73 13976. -/3 14252 45 46:14045. 06 lJ{:'~'~5~. 06 14370 46 15 141"'~ 99 . ~ "'~ m m 14._.z, 4 46 15 14240 40 14194 40 ( DR I FT TRUVERT SUB'.:;E A SECT I ON D I ST D I RECT I AN RELA'I' I VE CAORD I NA"FES ANALE FROM WELL-HEAD 180.27 N 20.5:~"i E 199.76 N 18.50 E 21'P.0::3 N 1:3.50 E 231. 10 N 17.80 E 240.72 N 17.80 E 261.73 N 18.50 E 282.32 N 17.40 E 302.32 N 19.50 E 324.48 N 17~.20 E 345.38 N 18.80 E :366.5'~8 N 18.80 E 387. 18 N 17.80 E 408.68 N 18.50 E 430.23 N 17.80 E 451.10 N 17.40 E 472.74 N 18.50 E 552.44 N 15.50 E 662.52 N 15.50 E 1:36.08 N 11 :Fi:. 87.> E 17l'" ....... :'"] 6? · _ ..,..-:::: N 1 .,.._. 174.73 N 1:32.16 E 186.81 N 1:i:6. 12 E 15>6.52 N 1 :*::?~. 24 E 217.64 N 146. 1'7 E 2:38.:39 N 152.89 E 258.42 N 159.5-/ E 280.:3:3 N 167.2:3 E :::01. 1F: N 174.44 E :322.73 N 1:'~:1.78 E :342. '.:~ 9 N 188.48 E 364.61 N 1'75.5'7 E 386.27 N 202.. 67 E 4 ('*) 7. :38 N 209. :36 E 429. 18 N ~=':' 16.4:*-*: E 510.:38 N 241.2!5 E /:.,z4 54 N '-' ...... ' · ~... 7~.. 91 E CLOSURE D I '.Fi;'I" A N Ii:E D G MN '-' 180. '70 N 41 8 37 E 199.85 N 38 58 12 E 21 ?}. 08 N :37 6 14 E 231.14 N :36 4 49 E 24(').85 N :35 19 'B E 26'2.17 N :33 53 6 E 28:3.20 N :32 40 25 F' :'::0:'-':. 71 N 31 41 41 E 326.49 N :30 49 17 E :})48.05 N 30 4 47 E :370.40 N 29 23 2'7 E 391.36 N 28 47 23 E 4i:3.75 N 2:3 12 29 E 43/_-,. 21 N 27 41 7 E 4..58.0:3 N 27 12 0 E 4.80.67 N 26 45 39 E 564..53 N 25 17 59 E 681.57 N 23 36 16 E LEE 10( 4.5:3] 5.25z 4. 19z 2.68'; 8.66] ~],. ,.:,(... 2.1:3'~ 3.5.92 1.58] 0. 0. :31:2 1.715 1.111 1. 225 O. 1 1. :38( O. 00( Suggested form %~o be insertcd in each "Active" well folder to d~.eck for timely ccmpliarce with our regulations. Operator, Well Nan~ and Number Reports and Materials to be received by: ~ '-~F Date Required Date Received Remarks Ccmplet~on Report Yes -- , '. Well History Yes -.. _Sa~s Ye3 - P I z/'- 2. 7- ~/ dfC' " Core Chips -- ., , ,v -* Core Doscr:i. pt2.on Registe.r~_ed Survey P la~" ~e-q Inb~ination-~urv0y N-~ ~----'-~ d.~ i _Directi°nal Survey y ~'~,,f'~ P/ q, "~ ~-. '7- ~' ~ ,(~./~-), .Drill Stem Test Reports A/:j ?'~'~"e --"~"---~ d/~ , Prcddcti0n Test Reports ~? ,: ,r'.~.:Bm'y]~[3 -(* .......... d~ Logs Run. Yes d. A. Layton MANAGER, ALASKA TASK FORCE P. O. Box 112206 :301 Danner Ave., Suite :300 Anchorage, AK 99511 April 13, 1984 Alaska Oil and Gas Conservation Comnission 3001 Porcupine Drive Anchorage, AK 99501-3192 Permit No. 84-18 Beaufort Sea Block54 Well No. IA Dear Conn~ssioners · Gulf Oil Exploration and Production Company herewith submits two copies of Form 10-404, Monthly Report of Drilling and Workover Operations, which con- tains our monthly report for our Beaufort Sea Block 54 Well No. IA, cover- ing March 1984. If you have any questions, please contact Mr. Vince Angell or Ms. Ann Jochens at (907) 349-4522. Very truly yours, J. A. Layton JAL :AEJ :jkw Attachments CC: V. Angell A. Jochens A DIVISION OF GULF oIL CORPORATION ~"~-, STATE OF ALASKA ALASKa.. iL AND GAS CONSERVATION L ~MISSION MONTHLY REPORT OF DRILLING AND woRKOVER OPERATIONS 1. Drilling well [] Workover operation [] 2. Name of operator 7. Permit No. Gulf Oil Corporation 84-18 3. Address 8. APl Number P.O. Drawer 112206, Anchorage, AK 99511 50- 029-20754-01 4. Location of Well at surface 3175' FEL and 1517 'FSL Section 10-T13N-R16E, U.M. at MD of 14534' TVD 14,240.4': 2902.1' FEL and 2141.5' FSL SeCtion 10-T13N-R16E, U.M. 5. Elevation in feet (indicate KB, DF, etc.) I 6. Lease Designation and Serial No. 44.58' DFI ADL-312806 9. Unit or Lease Name Beaufort Sea Block 54 10. Well No. 11. Field and Pool Wildcat For the Month of lV/a~ch , 19 84 12. Depth at end of month, footage drilled, fishing jobs, directional drilling problems, spud date, remarks Depth at end of month = 14,534' MD 14,240.4 TVD. Footage drilled = 810'. While drilling at 14,534', pipe became stuck. The pipe was eventually backed off at 13,655' and an 8~" bit, an 8~" stabilizer, 2-6~" drill collgrs, an 8~" stabilizer, 4-6~" drill collars, a set of jars, and 21 joints of 5" OD hevi.-weight drill pipe was left in the hole and abandoned. Rig was released at 1:00 AM 3-29-84 and the final plugging was complete at 8:00 AM 3-28-84. See attached pictures of final cap. 13. Casing or liner ru.n and quantities of cement, results of pressure tests N/A 14. Coring resume and brief description N/A 15. Logs run and depth where run TDT-GR f/14,308'-12,470' through 5" dp. GR f/14,533'-12,470' through 5" dp. 6. DST data, perforating data, shows of H2S, miscellaneous data See attached for directional surveys. Cement plugs as follows: 400' f/12,670' -12,270' below retainer w/210 Sks C1 "G" @ 15.8 ppg. 10 Sks cement on top of retainer; 400' f/8200'-7800' w/140 Sks C1 "G" @ 15.8 ppg.; Squeeze down 13 3/8" x 9 5/8" annulus w/150 Sks C1 "G" @ 15.8 ppg. followed by 933 Sks permafrost cement @ 14.7 ppg.; 200' f/3334'-3134' w/80 Sks C1 "G" @ 15.8 ppg.; 50' plug f/98'-48' w/20 Sks permafrost cement @ 14.7 ppg. Cellar was cut off 14' below level of island (below mud line approximately 3 '). 17. I hereby certify that the foregoing is true and correct to the best of my knowledge. NOTE--Report on this form is required for each calendar month, regardless of the status of operations, and must be filed in duplicate with the Alaska Oil and Gas Conservation Commission by the 15th of the succeeding month, unless otherwise directed. Form 10-404 Submit in duplicate MEMO.RANDUM State of Alaska AND GAS ALASKA,.,.O~j CONSERVATION COP~,i. ISS ION TO: Co V terton DATE: March 28, 1984 Chai~a~-~'. ' ~..,f//~ . F, LE ~o:. 2I. 7 TILRU: Lonnie C. Sm~.th / TELEPHONE NO: C~ssioner FROM: Harold R. Hawkins Petroleum Inspector SUBJECT: Witness Permanent Abandonment of Gulf Oil Corporation Beaufort Sea, Cross Island Blk 54 Well No. ~ lA, 3175' FEL & 1517' FSL, Sec. 10,T13N,R16E,UM. Friday, March 23, 1984: I left West Sak Pilot No. 12, subject of ~no'~he~ report' to Gulf Oil Corporations' location on Cross Island. Purpose of trip to witness permanent abandonment of Well '~=IA. I witnessed retainer set at 12270' with 35000 psi of weight. Saturda%, March 24, 1984: I witnessed 1200 pounds pressure above cement on retainer inside 9 5/8 casing. "'I also witnessed balance plug placed between 7800' and 8200'. I also witnessed 9 5/8 x 13 3/8 annulus cemented with 150 Sacks class "G" cement to below permafrost and followed with 933 sacks pemafrost cement 14.7 ppg to surface. Sunday, March 25, 1984: I witnessed the ~alance plug placed with 80 sacks_ class "G" cement inside 9 5/8 between 2068' where it was tagged to 3334' with 10,000 pounds of weight. Monday; March 26, 1984: I witnessed the top plug of 50' with 18 sacks permafrost cement, with good returnsl i talked to the supervisors with Gulf Oil and they are going to take pictures of the marker plate, with th9 well data and send to A.O.G.C.C, In summary, I witnessed the plugging of well No..-~IA, for permanent abandonment for Gulf Oil Corporation. Plugging of well was satisfactorily performed. Attaclunent 02-00IA(Rev. 10/79) ALASKA _ iL AND GAS CONSERVATION Ct. ,IMISSION MONTHLY REPORT OF DRILLING AND WORKOVER OPERATIONS · Drilling well ~ Workover operation [] 2. Name of operator 7, Permit No. Gulf 0il Corporation 84-18 3. Address 8. APl Number P.O. Box 112206 Anchorage, Alaska 99511 5o-029-20754-01 4. Location of Well atsurface 3175 FEL & 1517' FSL Section 10, 13N, 16E, U,M. at 13,622" 3096' FEL & 1553' FSL Section 10 13N, 16E, U.M. 5. Elevation in feet (indicate KB, DF, etc.) 6. Lease Designation and Serial No. 44.58 DF ADL - 312806 9. Unit or Lease Name Beaufort Sea Blk 54 10. Well No. lA 11. Field and Pool Wildcat For the Month of February ,19 84 12. Depth at end of month, footage drilled, fishing jobs, directional drilling problems, spud date, remarks Depth at end of month = 13,724' Footage drilled = 1119' left cone off bit in hole at 12,733'. Fished with globe baskets, but did not recover all of the cone. Began sidetrack operations at 4'00 PM 1/31/84 at 12,605' depth. 13. Casing or liner ru.n and quantities of cement, results of pressure tests N/A 14. Coring resume and brief description N/A 15. Logs run and depth where run N/A 1 6. DST data, perforating data, shows of H2S, miscellaneous data ,. cFC;-, ,~., ~'~ ~.;. N/A 17. I hereby certify that~he f~aregoi~g is tr,g/~aT)d corr~ct/o the best of my knowledge· SiGNEEr~ J.A. Layton ,C/ TITLE Mgr. Alaska Task Force DATE 3/14/84 NOTE--Report on this form is required for each calendar month, regardless of the status of operations, and must be filed in duplicate with the Alaska Oil and Gas Conservation Commission by the 15th of the succeeding month, unless otherwise directed· =~.~ ~r~ ~ Submit in duplicate September 18, 1984 Vince.._Angeil Gulf Oil~ Corporation P.O. Box 112206 Anchorage, Alaska 99511-2206 Re: Final Location Clean-up Inspection for Abandonment Beaufort Sea Blk 54., No. I-IA, Sec. I0, T13N, R16E, U.M. Dear Mr. A~ngell- Our representative inspected this location on August 21, 1984. it was found that clean-up was acceptable and that a correct marker plate was welded to the casing below grade. Consequently final abandonment of Beaufort Sea Blk 54 No. 1-iA is approved. Sincerely, :: ' i/ ~ , _: -'-'-. ' l-.~ Lonnie C. 'Smith Comi~ioner ic:A.3e.3 STATE OF ALASKA ALASKA~iL. ~D GAS CONSERVATION PERMIT TO DRILL 20 AAC 25.005 ,SION la. Type of work. DRILL [] REDRILL [] DEEPEN [] lb. Type of well EXPLORATORY)~ DEVELOPMENT OIL [] DEVELOPMENT GA~; [] SERVICE [] STRATIGRAPHIC [] SINGLE ZONE [] MULTIPLE ZONE [] 2. Name of operator Gulf 0il Corporation 3. Address P.O. Box 112206 Anchorage, Alaska 99511 9. Unit or lease name Beaufort Sea Block 54 4. Location of well at surface 3175' FEL & ]517' FSL At top of proposed producing interval Section IO-T]3N- RI6E, U.M. i 2659' FEL & 2145' FSL @ 14,300' - TVD i At total depth 2375' FEL & 26]7' FSL @ 15 000 TVD c~e~ /0 -/-T~]/q , ,/ ' 5. Elevation in feet (indicate KB, DF etc.) I 6. Lease designation and serial ~ 45.6 KB [ ADL - 312806 10. Well number Well No. 11. Field and pool Wildcat 12. Bond information (see 20 AAC 25.025) Type Blanket Surety and/or number 8092 - 44 - 23 13. Distance and direction from nearest town 14. Distance to nearest property or lease line ARCO East Dock, NE 15 miles FSL 5200 feet 16. Proposed depth (MD & TVD) 17. Number of acres in lease ]5,700 MD & 15,000 TVD~e~.t 5693.29 19. If deviated (see 20 AAC 25.050) 120. Anticipated pressures KICK OFF POINT ]2,b50~eet. MAXIMUM HOLE ANGLE 50 °l (see 20 AAC 25-035 (c) (2) 21 Proposed Casing, Liner and Cementing Program Amount $200,000 15. Distance to nearest drilling or completed we'lNo Name Is. 13,000 feet 18. Approximate spud date Spudded November 2, ]983 ~ ~ ~n pslgL~ ~ ~urTace IJIU 9520 psig~ ]~,30~. TD (TVD) SIZE Casing Weight 30 157.53 13 3/8 13 3/8 9 5/8 53.5 9 5/8 53.5 72 72 CASING AND LINER Grade Coupling Const BTC N-80 L-80 BTC S-95 BTC N-80 BTC Hole 17'/~ ! ]7'/2 I 12'/~ 12'/, Length R-3 R-3 R-3 R-3 SE] lING DEPTH MD TOP TVD 0 I 0 ' 2093 2093 I 0 I 0 I 5151 , 5151 MD BOTTOM TVD 114 ~ : !la 2039' ~2039 3234 ~3234 5151 ~5151 1226 t11226 22. Describe proposed program: 9 5/8 53.5 S-95 BTC R-3 11226 11226 ]2470 12470 QUANTITY OF CEMENT (include stage data} Dr i yen 5667 SKS Permafrost +300 SKS £1 "G" Tail 3825 SKS CI "G" Straight ho]e was drilled to 14,538' MD. Propose to set cement plug from ]2,550' MD to 13,000' MD. Abandon hole below 12,550'. Kickoff at 12,550' MD and redrill hole to ]5,000' TVD, ]5,700'+- MD. RE(:EIVED alaska 0ii & Gas ¢0ns. O0mmissi00 .... Anchorage 23. I hereby certify that the/~r/egoing is true and correct to t.he best of my knowledge SIGNED o~f~' , .~..,_ TITLE Manager, AK Task Force DATE 1/30/84 The space bel r Commission use J Sa.~r~pJes required ES (]NO Permit number J Form 10-401C~/~~(~ CONDITIONS OF APPROVAL Mud log required Directional Survey required I APl number '~]~J~ E S •NO '~YES []NO I 50- OT...g- Approval date SEE COVER LETTER FOR OTHER REQUIREMENTS ,COMMISSIONER DATE January 30, 1984 by order of the Commission Submit in triplicate .,,Ih-z.... January 30, t986 Mr. J. A. Layton Manager, Alaska Task Force Gulf Oil Corporation P. O. Box 112206 Anchorage, Alaska 99511 Beaufort Sea Block 54 No. IA Gulf Oil Corporation Permit No. 84-18 Sur. Loc. 3175'FEL, 1517'FSL, Sec. 10, T13N, R16E, I~4. Bt~thole Loc. 2375'~, 2617'FSL, Sec. 10, T13N, R!6E, UM. Dear Mr. Layton: Enclosed is the approved application for permit to drill the above referenced well. There is evidence that h.vdrogen sulfide (H~O) gas may be encountered in the drilt{ng and testing of~'the~Li~burne Group. ~erefore, before penetration of the Lisburne in the drilling of this well and during the testing, the operator shall comply with the minimttm requirements for detection monitoring, contingency and control of H2S gas as specified in ~0 AAC 75.056(c). If coring is conducted, a one cubic inch chip from each foot of recovered core is required. Samples of well cuttings and a mud log are required. A continuous directional survey is re~uJ, red as per 20 AAC 25.050(b)(5). If available, a tape containing the dig!timed log information shall be submitted on all logs for copying except experimental logs, velocity surveys and dipmeter surveys. Many rivers in Alaska and their drainage system~ have been Classified as important for the spawning or migration of anadromous fish. Operations ~n these areas are subject to AS 16.05.870 and the regu_latfons pro[m~igated thereunder (Tit!~^5, A~aSka ~intStrative Code)[ Pr!~r tO ~ommenc~ng operations may be contacted by the Habitat Coordinator's Off, ce, Department of Fish and Game. Pollution of any waters of the State is prohibited by AS 46, Chapter 3, Article 7 and the regulations promulgated thereunder Mr. J. A. Layt Beaufort Sea Block ~4 No. IA -2- January 30, !984 (Title 18, Alaska Administrative Code, Chapter 70) and by the Federal Water Pollution Control Act, as amended. Prior to com~nencing operations you may be contacted by a repr~.seotat~..ve nf the Department of Environmental Conservation. To aid us in scheduling field work, pleame not~fy this office 24 hours prior to co, cueing installation of the blowout prevention equipment so that a representative of'the Commission mmy be present to witness testing of the equ!~ment before the surface casing shoe ia drilled. I~ere a diverter syst.m is required, _h~s office 94 hours prior to commencing please also notify t' ~ ~ equipment installation so that the Commission m~y witness t~st!ng before ~riIling belo~ the shoe of the conductor pip.. In the event of Suspension or abandonment, ~ · p~_oame Rive this office a~e~ua_e advance notification so that we max, have ,, witness pre~ent. Very truly yours, . C. V. Chatterton 8¥' ORDER (~= THE COMMIS-$10# Chai~an of Alaska Oil and Gas Conser~zation Commission Enclosure cc: Department of Fish & Came, ~abitat Section w/o encl. Department of Environmental Conservation w/o encl. 1. (2) Loc (2 thru 8) (8) (3) Admin (9 thru 11) (4) ,.C,as g (10 and 11) .(12 thru 20) (5) BOPE (6) Add: (21 thru 24) ® 3. 4. 5. 6. 7. 8. ® 10. 11 IS.well to be located in a defined pool .................... : ........ Is well located proper distance from property line ................ ,. Is well located proper distance from other wells .................... Is sufficient undedicatad acreage available in this.pool ............ Is well to'be deviated and is well bore plat'included ............... Is operator the only affected party ................................. Can permit be aPproved before ten-day wait .......................... Does operator have a bond in force .................................. Is a conservation order needed ...................................... Is administrative approval needed .................... . ............. '.. 12. 13. 14. 15. 16. 17.' 18. 19. 20. Is Conductor string provided ....................... · ................. Is enough cement used to circulate on conductor and surface .......... Will cement tie in surface and intermediate or production strings ... Will cement cover all known productive horizons ..................... Will surface casing protect fresh water zones ....................... Will alI casing give adequate safety in collapse, tension and burst~. Is this well to be kicked off from an existing wellbore .......... ... Is old wellbore abandonment procedure included on 1.0-403 ............ Is adequate well bore separation proposed ......................... .. 21. 22. 23. 24. 25. Is a diverter system required ......................................... Are necessary diagrams of diverter and BOP equipment attached ....... Does BOPE have sufficient Pressure rating - Test to psig ...- Does the choke manifold comply w/API RP-53 (Feb.78) .................. Additional requirements ............................................. 0 ~Z Geology: Engineering: HWK LCS K~5 BEW WVA .... JKT ,~,~/ ~H rev: 12/08/83 Additional Remarks: INITIAL GEO. UNIT ON/OFF POOL CLASS STATUS AREA NO. SHORE Well Histo.ry File APPENDIX Information of detailed nature that is not particularly germane to the Well Permitting Process but is part of the history file, To improve the readability of the Well History file and to simplify finding information, information-of this nature is accumulated at the end of the file under APPENDIXi ,. No Special'effort has been made to chronologically organize this category of information. ,o JP 010,~02 vkR£?'iCA'rloN LISTI.NG PAGE 1 REEL. HEADE~ ** gRVICE NA}~E :ED1T ATg :8~I07/ b RIGIN : BEB NA~E :R~]EL ~.) DNTImUATION ~ :01 REV IO~]S REEL : DMME~TS :LIBRARY TAPE * TAPE HEADE~ *~ ERVICE NAME :EDII~ ATE :84/07/ 5 RIGIN :0000 APE NAME :9318 ONTINUATION 1~ :01 REVIOU$ TAPE : OMMENTS :I~!BRARY TAPE * FILE HEADER I. LE NA~E :EDIT ,O01 ERVICE NAME ER$ION # : ATE : AXIMUM [,ENGTH : 1024 IL~ TYPE : RE¥IOU$ FILE : * INFOR~ATIiON RECORDS CONTENT~ N : GULF OIL, E×PLORATION N t BEAUF(JRT SEA /5L54~lA N : WIbDCAT N: 13N ECT: 10 TAT~ AL~KA TRY: USA , COMMENTS U N J: T T Y P E C A T E ,51 Z E C o O E 000 000 020 065 000 000 020 06b 000 000 008 065 000 000 003 065 000 000 003 065 000 000 002 065 OOO 000 008 065 000 000 OOb Ob5 000 000 004 065 VP OlO.it02 VEF~IFICATIOfli LISTING PAGE 2 O~PANY = (iUbF OiL EXPL{'IRATION IEL~ = ~ILDCAT OUNT~ = NlJ~T~ 5LUPE SOROUG~ TATE = AGASF. A ON #4. DATE k, UGGED: 20 ~!AR 84 DP:RICK KRU~ELL ASiNG YPk FLOID = 9.525" @ 12469" = FReSh WATER/GEL, THIS SCHI.,i. IN~BERGER LOGS INCLUDED ~ITM THIS ~%AGN~TiC TAPE: T~F, RMAL DECAY TIME (TDT-N~) * GA~MA R~,Y LOG (GR) VP Ol.O,.H02 VERIF£CATI[)h~ LI. fiTl~l'~iG PAGE 3 DATA FUR~,IAT NTA¥ BLOCKS [<ECP., k l.) TYPE 9 0 ATU'g SPECIFICATIUN NEM 6ERV1CE SEKViCE iD ORDER EPT IGM TDT RAT TOT R TDT ACK TDT BAC TDT TDT ~DT T D T T P T AU TDT TAU TDT C L T D T SiZE REPR CODE 4 73 4 65 I 66 U C K S UNIT AP1 APl APl API FILE LUG TYPE CLASS ~BD F'i~ 0 0 0 O 0 CO u 40 1 0 0 0 q2 1 0 0 CO 0 0 0 0 0 [.;AP].' 0 31 32 0 0 C P S 0 0 0 0 0 CPS 0 0 O. 0 0 CPS 0 0 0 0 0 C P S 0 0 0 O 0 us 0 41 1 0 0 S 0 0 0 0 0 0 0 0 0 0 ENTR~ 1 lin 0 SIZE PROCESS SAMPLE bEVEb 4 0 1 4 0 1 4 0 4 0 1 4 0 1 q 0 1 4 0 1. 4 0 t 4 0 1 4 0 1 4 0 4 0 I RE:PR CODE 68 68 68 68 68 68 68 DATA EPT 1.4556, O00O R -999,2500 TDT -999. 2500 EPT 14500,0000 R :~2.6563 'TDT -999 . 250(; E, 'l 14~00, oOOO R 29.1719 T:DT -999. 2500 ,gPT 14300, o000 ;R 11 'TDT 76. 0625 ~gPT 14200 , R 48 , 375 S BACr< T A U BACK T AU S i G BA C K T A U SIGM BAC~ T AU S 1: G bi BACK -999,2500 TRAT -999.2500 F~AC -999.2500 FI'AU '999,2500 TRAT -999,2b00 F A(, -999.2500 F'YAO -999,~500 TRA'I -999'2500 FBAC -999,2500 FTAU I"1,851~ TRAT 22,7031 F6AC 254.6400 ffTAU 8,[t~06 TRAI' 1.6875 FBAC -999,2b00 FSlG -999'2500 NTDT -999.25oo cch -999.~500 FSIG '999,2500 N~DT -999.2500 CCI, -999,~500 FSIG -999.2500 NID~' "'~ ' -999,2500 CCL 2.6313 FSIG 8.9~4~ NIDT 306.8596 CCh 1 B, 63 N T D T -999,2500 -999,2500 '999,2500 -999,~500 -999~2500 0,0000 '99~,2500 -99 .~500 O,O000 1~,8232 79.656] 0,0000 3b,3528 173,~914 IP OI.O,HO~ YERII"J. CATI[)?~ hIbTI~G PAG~ 4 i~D'I! 66 . 3516 TALl 14100,0000 SIGM 39.408d BACK 59.5313 TAU gP~1' 1.4000.OuO0 SIG{q ~ 47.61'12 BACK rDT 62.6563 TAU EPT 13900.0000 R 36,0781 BACK IDT 73.0938 'lA[! EPT 13800.00()0 SiGi~ R 42.4297 BACI~. 1DT 82.5761 TAU EPT .1370(}, 0000 SI G~i. R ~0.'157~ BACK 'IDT 80.531:5 TAU EPT 13600. 0000 SIG.¥t, R 29,'718~ BAC~< TDT 52.6992 TAU EPT 1, 3500,0000 SIGM R 39~B437 Bgctt TDT 78. 3359 TAU EPT 13400, o000 SIGN R 20,6ziO0 BACK TDT 56. 3789 TAU EPT 1.3300 0000 S1G~ R 44~5~13 ~AC~ TDT 142,0625 TALl EPT 13200,0000 SIGM TDT 132,,1719 TALl EPT 13100,00oo SIGM R 42~6~75 BACK TOT 1,37,4844 TALl EPT 13o0o.o000 SIGM R 42 0938 BAC~ TDT 13()~632S TAU EPT 1290~.0000 SIGt~!. 5 5391 BACK DT 13~' .4063 TAU 36.5723 58 7212 124~3438 36.5078 73,1885 124.5938 42,8750 85.0580 106,0938 37.2598 99.5625 122.0313 33,3809 104~750 136.2266 28.6262 114.5000 1.57.B04.'; 37.6367 1,20 359 29.3213 ~19,3984 155.1016 32,483a 1,36,O000 140.0039 29.5905 139,1250 153.6:]82 30.5499 136,3~84 14B,B252 29.2686 135 6445 155~3"111 30,3896 ~4:1..2500 ],~9.6094 F T A L) THAT FDAC T R A T .F~AC F£AU F~AC FTAU '1'RAT FBAC FTAU T~AT , .~ ["' ,t~ AC, FTA U T R A T Fr3AC TRAT FI'AU TRAT Ft~AC FTA b T R AT FBAC FTAt) TRAT F'BAC F'I'AU TR AT F'BAC F T AU T R A T F'BAC ~ 1 A u T R A T FtJAC FTA U 124.9760 6.8293 18,~b53 133.6783 6.8353 24,3281 I40.9012 7.2324 26.5.195 118.4307 6.1895 28.0313 132.8699 5,5278 28.6377 145.9569 7.1719 29,9062 182.643'5 fi. 522O 31 ,2~17 125.467H 7.1917 29.2642 1.54,3oll 5.5205 3B,b133 1541.8603 4.1875 39,1565 154;3537 5. 3358 40,1875 163.2832 5.520l 87 5 CC b FSIG NTDT I"'S IG ~ T D CCi., FSIG FSIG NTDT CCh N T D T CC b FSIG N 'I~ O 'r CC b FSIG NTDT CC I., F$IG N T D T CC L F$IG (2 C b flTDT CC:L F'SIG CC L olG 10I CCh FSIG CC b 0.0000 34.0170 103,281~ 0.0000 32.2549 0.0000 38,4004 226,7188 0,1396 34.2200 184,0049 0,0000 31,1543 lg5,5938 0,0000 24.9062 155,2500 0,0000 3b.3359 199,8828 0,O000 29,4629 136~0'191 0,0000 29.3770 28'1,8750 0 · 0000 27,5986 264,1328 o. O000 29,4590 250,.0.50~ 0 ' 0000 2..~,8589 2'i ,820~ o.O000 29.9434 272,2891 0.0 00 0 L"~l ~ i m I m i 1 ,I:-1 il) [:-] ~l VP OlO.H02 VERIFICATi(I~q LISTING PAGE gPT 1280o. oOou $iG R 41,1. u16 BACK fDT I 28.47 bo TAU EPT 12'100,0000 SIG~ R 39.9375 BACK TDT 132.4544 TAU EPT 12600.0000 SIGN R 22,1250 BACN TDT 102,5875 TAU EPT 125u0,0000 $iG~'~ R 35.2500 5AC~ TDT 133;g2~1 TAU EPT 12400.0000 $iG~ R 38,1250 BAC~ TDT 146.3'150 TAU EPT 12300.0000 R TDT 139.6875 ~2200.0000 ' C R 32,~6~ ~A ~ TDT -999.250() TAU EPT 12100,0000 SIG14 R 35,7500 BACK TDT -999.2500 TAU EPT 12000,000() S.IGJ4 R ~3,6250 ~ACK TDT -999,2500 Al3 EPT 11900,()000 SiG~ R 37.75OO BAC~ TDT -999,2500 EPT ..118{)('), 0000 SIGM R ~3,59~8 8AC~ TDT -999.2500 TAU ,EPT 11700,O00u SIG~ ;R T 25,,bt~'/5 BACK 'TD,. -999. 2500 TAU 'EPT 1160o.o000 SIGM ;R 26,2031 BACK 'TDT -999,2500 ',[AU ~EPT ~150o.o0o0 SIG~ 3{). 3403 147,7500 !49.9u23 31.3506 144.6250 145.0352 33.7852 145,2500 134.6~94 31.5921 146.750U 1.43'8884 44,6035 155,1914 ~01,9961 42.5410 lb2,1387 106.9102 -999.25O0 -999,2500 -999.2500 2999,2500 999,2500 -999.2500 -999.2500 '999,2500 '999,2500 099,2500 g99,2500 :999~250()' '999,2500 -99~,2500 -99 .25()0 -999,2500 -999,2500 -999.250O -999,2500 -999,2500 -999.2500 -999.2500 -999,2500 FsAC TRAI F~AC ]'RAT FSAC FTA U T R A T FBAC FTAU TRAT FSAC FTAU T~AT F'SAC FTAU TRAT FsAC FTAU TRAT FSAC FTAU TRAT FSAC FTAU FbAC FTAU TRAT FSAC FTAU TRA T FBA C 5.4'107 40.4131 I5~.3546 5,7090 41,6563 ~44.3792 5.5156 40,8437 151..9919 5.8114 ql.4082 151.5187 5.8350 45.~125 110.3543 5.5647 44.4063 124.1039 -999.2500 -999.2500 -999.2500 -999.2500 -999,2500 -999.2500 -999.250o '999,2500 '999.2500 '999.2500 -999,2500 -999.25O0 -999. 2500 '999,2500 -999.2'500 -999. 2500 '" -999,2500 -999.2500 -999.2500 -999.2500 -999.2500 FSIG CCL FSIG mTOT CCh FSIG CCi. FSI(..; NTDT F$IG N'I'DT CCI.* FSI. G CC L F6IG NTDT CCL FSIG CCL FSIG NTOT CCL FSIG N T:O T CC L FSIG NTDT CCh F,SIG NTDT CCI., NTDT CC L FSIG N T D T 2~. 1324 262,5664 0,0000 31.5024 280.8750 0.0000 29.9155 19o,6250 -0,0437 30.0225 28~'4375 O.O000 41,2139 323,3515 0,0000 36.6152 304.7969 0.0000 -999,2500 '99~,2500 O.UO00 -999.2500 -999.2500 0,0000 -999.2500 u i ~500 000 -999. 2500 ooo ~99,2500 99'2500 0.0000 '999,2500 '99~,2500 ,0000 -999,2500 -~9' 2500 :oooo -999,2500 -999.2500 I,-'1~ ]11! 1 iil ~I:-1 l~ [:-I ~ tP OlO,H02 VERI?'ICATIOI,~ LI6TING PAGk; 6 rDT -999.25[.)0 TAll ~PT 1140().0000 R 3(.), 2344 rDT -999,2bOU EPT 11300,0000 R 34. 843 '/ B A CI', rDT -999. 2500 TAU 1.1200,0000 S I(;F~ 32,2500 BACK -999,2500 TAU EPT lllO0,O0OO SIGM R 29.1562 BACK TDT -999,250v TAt; EPT 1.1000,0000 R 37.0000 BACK TDT -999.2500 TAU EPT 10900 0000 $IG'~ R 33:3438 BACK TDT '999.2500 TAU EPT 10800.()000 5IGM R 36.'/~13 BACK TDT -999.2500 TAU .EPT 1~700,0000 SiG~ '~ 31,4531 BAC~ DT 999.2500 TAU EPT 10600.0000 $IG~ R 48,2813 ~ACK TDT -999.25o0 TAU EPT 1~500,o000 SIGa R 31,4531, BAC~ ~ET 999.2500 TAU EPT 10400,000() $1G ;R 31.4,~ t5 BACK 'TDT -999. ~ 5 (.) 0 TAtJ ,EPT 10300.0000 ;R 31,5025 BAC~ 'TDT -999.2500 TAU ~gPT 1~200,0000 ;R 25,2500 BACK 'TDT 999. 2500 'I,'A U -999,2500 -999.2500 -999.2500 -999.2500 -999.2500 -999.2500 -999.2500 '999,2500 -999.2500 -999.25O0 -999.2500 -999,2500 -999,2500 -999.2500 -999,2500 -999.2500 -999.2500 :999,2500 999.2500 -999.250U :999,2500 999.2500 '999,2500 -99~,2500 -99 .2500 '999,2500 -999,2500 -q99,2500 -999,2500 9~,250o -999~500 -999.25oo -999.2 O0 -999,2500 -999 2500 -999'2500 -999.2500 -999,~500 -999' 500 F TAb FSAC FI'AU ThAT FbA£ F"IAU T ~ Al' F~AC FTAU TRAT ~"~AC F TAU TRAT F6AC FTAU TRAT F'BAC .... I. A tJ FBAC FTAU TRAT FSAC TRAT FBAC F 'i:A b TRAT F'BAC FTAU T R A T F B A C ~.'TAU TRAT F ~ A C FTAU TRAT FBAC FTAU -999.2500 CCI, -999.2500 F6IG -999.2500 NTDT -999.2500 CCh -999.2500 FSIG -999.2500 -999,2500 COL '999.2500 FSI(; -999.2500 NTDT '999.2500 CCL -999.2500 FSIG -999.2500 NTDT -999,2500 CCh '999,2500 F$IG -999,2500 NTDT '999.2500 CCL, '999.2500 '999.2500 NTDT -999.2500 -999.2500 FSIG -999. ~500 N'TDT -999. 2500 CCL - o. soo 999. 500 CCh -999.2500 F$IG -999,2~00 ~TDT -999.2500 CCL -999.2500 F$IG -999. 2500 ~TDT -999,2500 (..C L~ -999.25()0 [ ol , -99q. 2500 N .t~ [,..£ -~9~.2500 CCh -999.2'500 FSIG -999,2500 NTDT -9~9. 2500 CCh -999.2500 FSIG -999,2500 NIL], '999,2500 CCi, 0,0000 -999.2500 -999,2500 0.0000 '999,2500 -999.2500 0.0000 -999,2500 '999,2500 0,0000 '999,2500 -999.2500 0;0000 -999,2500 '999,2500 0,0000 999,2500 :99N.2500 0.0000 -999.2500 -999,2500 0.0000 -999.2500 -999,~500 0,0000 -999,2500 -999,2500 0,0000 -999.2500 -999,2500 0.0000 -999.2500 -99~,2500 0,0000 -999.2500 -999,~500 o,0000 -999,2500 -999,~b00 O. 000 tP OlO,H02 VERI.,KI, C~T£Or~ bISTl~G PAGE 7 35,593~ ~AC~ -999,2500 TAU ~PT 10000.0000 S1G~i { 34,1552 BAC~ fhT -999,2500 TAU ~PI 9900.0000 SIGn R 37,2187 BACK rD~ -999.2500 TAU EPT 9800,0000 51G~ 38,3750 BACK DT -999.2500 TAU EPT 9700.0600 S1GM R 32.0~13 BACK TDT -999.2500 TAU EPT 9600.0000 S.IG~ R 29,9052 BACK TDT -999.2500 TAU EPT 9575.0000 SIGM R 29,890~ ~C~ TDT -999,2500 AU -999.2500 -999.2500 -999,2500 -999.2500 -999.2500 -999,2500 -999.2500 -999,2500 -999.25OO -999,2500 -999.2500 -999.2500 -999.2500 -999 2500 999~2500 2999,25(')0 999.2500 -999.2500 -999.2500 -999,2500 -999.2500 FTAb FdAC FTAb TRAT FSAC F~AC F'rAU 'TRA'I Fi~AC FTAU TRAT FBAC ?' T A b TRAT FBAC FTAU FILE TRAILER LE NANiE : EDII' ,001 ER'VICE NAME ER$ION i : ATE : AXIMUM LENGTH : 1024 ILE TYPE : EXT FILE NA~E * TAprE TRA!bER ** ERVICL NAME :EDIT ,ATE :84/07/ 5 ~RIGIN :0000 'APE NA~E :931~ :ONTINhATION ~ :01 iEXT TAPE NAME : IOMMENTS :LIBRARY TAPE ;* REEL TRAILER ** ;ERVI. CE NAME :EOIT ~ATE :8410'7/ 5 -999.2500 '999,2500 '999.2500 -999,2b00 -999.2500 -999,2500 -999.2500 -999,2500 -999.2b00 -999,2500 -999.2500 -999.2500 '999,2500 '999.2500 '999.2500 -999.2500 -999.2500 -999.2500 -999.2500 -999,2500 -999,2500 FSIG t~ 'I:D T CC!,, FSIG CCh FSIG NI'DT CCh NIDT CCh F$IG NTDT CCh FSIG CCh FSIG NTDT CCh -999,2500 -999,2b00 0,0000 -999,2500 -999.2500 0o0000 -999,2500 -999,2500 0,0000 -999.2500 -999,2500 0,0000 -999.2500 -999.2500 0.0000 -999.2500 -999,2500 0.0000 -999.2500 -999,2500 0.0000 fP OlO.H02 VEiRI~".ICATI(]N I,~ISTING PAGE DNTINUATION ~ :01 ;JMM~N~I',S :L, IBRAN¥ TAP,~