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HomeMy WebLinkAbout223-009DA T A S U B M I T T A L C O M P L I A N C E R E P O R T AP I N o . 5 0 - 0 2 9 - 2 3 7 4 5 - 0 0 - 0 0 We l l N a m e / N o . M I L N E P T U N I T B - 4 0 Co m p l e t i o n S t a t u s 1W I N J Co m p l e t i o n D a t e 3/ 2 0 / 2 0 2 3 Pe r m i t t o D r i l l 22 3 0 0 9 0 Op e r a t o r H i l c o r p A l a s k a , L L C MD 13 3 6 8 TV D 44 4 7 Cu r r e n t S t a t u s 1W I N J 9/ 5 / 2 0 2 5 UI C Ye s We l l L o g I n f o r m a t i o n : Di g i t a l Me d / F r m t Re c e i v e d St a r t S t o p OH / CH Co m m e n t s Lo g Me d i a Ru n No El e c t r Da t a s e t Nu m b e r Na m e In t e r v a l Li s t o f L o g s O b t a i n e d : PB 1 : R O P , A G R , E W R M D & T V D P B 2 : R O P , A G R , D G R , A B G , E W R , A D R M D & T V D R O P , A G R , D G R , A B G , E W R , A D R M D No No Ye s Mu d L o g S a m p l e s D i r e c t i o n a l S u r v e y RE Q U I R E D I N F O R M A T I O N (f r o m M a s t e r W e l l D a t a / L o g s ) DA T A I N F O R M A T I O N Lo g / Da t a Ty p e Lo g Sc a l e DF 4/ 1 1 / 2 0 2 3 64 8 0 1 3 3 3 0 E l e c t r o n i c D a t a S e t , F i l e n a m e : M P U B - 4 0 A D R Qu a d r a n t s A l l C u r v e s . l a s 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 11 2 1 3 3 6 8 E l e c t r o n i c D a t a S e t , F i l e n a m e : M P U B - 4 0 L W D Fi n a l . l a s 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 G e o s t e e r i n g E n d o f We l l P l o t . e m f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 G e o s t e e r i n g E n d o f We l l P l o t . p d f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : H i l c o r p B - 4 0 S t r a t a S t a r Re s u l t s . p d f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 C u s t o m e r S u r v e y . x l s x 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 G e o s t e e r i n g E n d o f We l l R e p o r t . p d f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P o s t - W e l l A D R Ge o s t e e r i n g X - S e c t i o n S u m m a r y . p d f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P o s t - W e l l A D R Ge o s t e e r i n g X - S e c t i o n S u m m a r y . p p t x 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 G e o s t e e r i n g E n d o f We l l P l o t H i g h R e s o l u t i o n . t i f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 G e o s t e e r i n g E n d o f We l l P l o t . t i f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 L W D F i n a l M D . c g m 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 L W D F i n a l T V D . c g m 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 a n d p l u g b a c k s _ F i n a l Su r v e y s . x l s x 37 5 8 6 ED Di g i t a l D a t a Fr i d a y , S e p t e m b e r 5 , 2 0 2 5 AO G C C Pa g e 1 o f 4 PB 1 PB 2 MP U B - 4 0 L W D Fi n al. l as DA T A S U B M I T T A L C O M P L I A N C E R E P O R T AP I N o . 5 0 - 0 2 9 - 2 3 7 4 5 - 0 0 - 0 0 We l l N a m e / N o . M I L N E P T U N I T B - 4 0 Co m p l e t i o n S t a t u s 1W I N J Co m p l e t i o n D a t e 3/ 2 0 / 2 0 2 3 Pe r m i t t o D r i l l 22 3 0 0 9 0 Op e r a t o r H i l c o r p A l a s k a , L L C MD 13 3 6 8 TV D 44 4 7 Cu r r e n t S t a t u s 1W I N J 9/ 5 / 2 0 2 5 UI C Ye s DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 _ D e f i n i t i v e S u r v e y Re p o r t . p d f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 _ d e f i n i t i v e s u r v e y s . t x t 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 _ G I S . t x t 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 _ P l a n . p d f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 _ V S e c . p d f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 L W D F i n a l M D . e m f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 L W D F i n a l T V D . e m f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U _ B - 4 0 _ A D R _ I m a g e . d l i s 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U _ B - 4 0 _ A D R _ I m a g e . v e r 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 L W D F i n a l M D . p d f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 L W D F i n a l T V D . p d f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 L W D F i n a l M D . t i f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 L W D F i n a l T V D . t i f 37 5 8 6 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 11 2 6 4 9 7 E l e c t r o n i c D a t a S e t , F i l e n a m e : M P U B - 4 0 P B 1 LW D F i n a l . l a s 37 5 8 7 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 1 L W D F i n a l MD . c g m 37 5 8 7 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 1 L W D F i n a l TV D . c g m 37 5 8 7 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 1 _ D e f i n i t i v e S u r v e y Re p o r t . p d f 37 5 8 7 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 1 _ d e f i n i t i v e su r v e y s . t x t 37 5 8 7 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 1 _ G I S . t x t 37 5 8 7 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 1 L W D F i n a l MD . e m f 37 5 8 7 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 1 L W D F i n a l TV D . e m f 37 5 8 7 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 1 L W D F i n a l MD . p d f 37 5 8 7 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 1 L W D F i n a l TV D . p d f 37 5 8 7 ED Di g i t a l D a t a Fr i d a y , S e p t e m b e r 5 , 2 0 2 5 AO G C C Pa g e 2 o f 4 MP U B - 4 0 P B 1 LW D F i n al. l as DA T A S U B M I T T A L C O M P L I A N C E R E P O R T AP I N o . 5 0 - 0 2 9 - 2 3 7 4 5 - 0 0 - 0 0 We l l N a m e / N o . M I L N E P T U N I T B - 4 0 Co m p l e t i o n S t a t u s 1W I N J Co m p l e t i o n D a t e 3/ 2 0 / 2 0 2 3 Pe r m i t t o D r i l l 22 3 0 0 9 0 Op e r a t o r H i l c o r p A l a s k a , L L C MD 13 3 6 8 TV D 44 4 7 Cu r r e n t S t a t u s 1W I N J 9/ 5 / 2 0 2 5 UI C Ye s We l l C o r e s / S a m p l e s I n f o r m a t i o n : Re c e i v e d St a r t S t o p C o m m e n t s To t a l Bo x e s Sa m p l e Se t Nu m b e r Na m e In t e r v a l IN F O R M A T I O N R E C E I V E D DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 1 L W D F i n a l M D . t i f 37 5 8 7 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 1 L W D F i n a l T V D . t i f 37 5 8 7 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 64 8 0 1 1 3 3 5 E l e c t r o n i c D a t a S e t , F i l e n a m e : M P U B - 4 0 P B 2 AD R Q u a d r a n t s A l l C u r v e s . l a s 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 11 2 1 1 3 7 2 E l e c t r o n i c D a t a S e t , F i l e n a m e : M P U B - 4 0 P B 2 LW D F i n a l . l a s 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 2 L W D F i n a l MD . c g m 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 2 L W D F i n a l TV D . c g m 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 2 _ D e f i n i t i v e S u r v e y Re p o r t . p d f 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 2 _ d e f i n i t i v e su r v e y s . t x t 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 2 _ G I S . t x t 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 2 L W D F i n a l MD . e m f 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 2 L W D F i n a l TV D . e m f 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U _ B - 4 0 P B 2 _ A D R _ I m a g e . d l i s 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U _ B - 4 0 P B 2 _ A D R _ I m a g e . v e r 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 2 L W D F i n a l MD . p d f 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 2 L W D F i n a l TV D . p d f 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 2 L W D F i n a l M D . t i f 37 5 8 8 ED Di g i t a l D a t a DF 4/ 1 1 / 2 0 2 3 E l e c t r o n i c F i l e : M P U B - 4 0 P B 2 L W D F i n a l T V D . t i f 37 5 8 8 ED Di g i t a l D a t a Fr i d a y , S e p t e m b e r 5 , 2 0 2 5 AO G C C Pa g e 3 o f 4 MP U B - 4 0 P B 2 LW D F i n al. l as DA T A S U B M I T T A L C O M P L I A N C E R E P O R T AP I N o . 5 0 - 0 2 9 - 2 3 7 4 5 - 0 0 - 0 0 We l l N a m e / N o . M I L N E P T U N I T B - 4 0 Co m p l e t i o n S t a t u s 1W I N J Co m p l e t i o n D a t e 3/ 2 0 / 2 0 2 3 Pe r m i t t o D r i l l 22 3 0 0 9 0 Op e r a t o r H i l c o r p A l a s k a , L L C MD 13 3 6 8 TV D 44 4 7 Cu r r e n t S t a t u s 1W I N J 9/ 5 / 2 0 2 5 UI C Ye s Co m p l e t i o n R e p o r t Pr o d u c t i o n T e s t I n f o r m a t i o n Ge o l o g i c M a r k e r s / T o p s Y Y / N A Y Co m m e n t s : Co m p l i a n c e R e v i e w e d B y : Da t e : Mu d L o g s , I m a g e F i l e s , D i g i t a l D a t a Co m p o s i t e L o g s , I m a g e , D a t a F i l e s Cu t t i n g s S a m p l e s Y / N A Y Y / N A Di r e c t i o n a l / I n c l i n a t i o n D a t a Me c h a n i c a l I n t e g r i t y T e s t I n f o r m a t i o n Da i l y O p e r a t i o n s S u m m a r y Y Y / N A Y Co r e C h i p s Co r e P h o t o g r a p h s La b o r a t o r y A n a l y s e s Y / N A Y / N A Y / N A CO M P L I A N C E H I S T O R Y Da t e C o m m e n t s De s c r i p t i o n Co m p l e t i o n D a t e : 3 / 2 0 / 2 0 2 3 Re l e a s e D a t e : 2/ 1 7 / 2 0 2 3 Fr i d a y , S e p t e m b e r 5 , 2 0 2 5 AO G C C Pa g e 4 o f 4 M. G u h l 9 / 2 5 / 2 0 2 5 MEMORANDUM State of Alaska Alaska Oil and Gas Conservation Commission DATE:Thursday, June 1, 2023 SUBJECT:Mechanical Integrity Tests TO: FROM:Austin McLeod P.I. Supervisor Petroleum Inspector NON-CONFIDENTIAL Hilcorp Alaska, LLC B-40 MILNE PT UNIT B-40 Jim Regg InspectorSrc: Reviewed By: P.I. Suprv Comm ________ JBR 06/01/2023 B-40 50-029-23745-00-00 223-009-0 W SPT 4443 2230090 1500 357 358 359 359 INITAL P Austin McLeod 5/4/2023 MITIA. Monobore. 30 MinPretestInitial15 Min Well Name Type Test Notes: Interval P/F Well Permit Number: Type Inj TVD PTD Test psi API Well Number Inspector Name:MILNE PT UNIT B-40 Inspection Date: Tubing OA Packer Depth 443 1717 1649 1627IA 45 Min 60 Min Rel Insp Num: Insp Num:mitSAM230506123123 BBL Pumped:2.5 BBL Returned:2.5 Thursday, June 1, 2023 Page 1 of 1 9 9 9 9 9 9 999 9 9 9 9 James B. Regg Digitally signed by James B. Regg Date: 2023.06.02 10:46:21 -08'00' MILNE POINT FIELD / SCHRADER BLUFF OIL POOL 2 By James Brooks at 1:10 pm, May 01, 2023 Completed. 3/20/2023 JSB RBDMS JSB 051623 GDSR-5/22/23MGR08AUG2023 5.1.2023 Digitally signed by Monty M Myers DN: cn=Monty M Myers, c=US, o=Hilcorp Alaska, LLC, ou=Technical Services - AK Drilling, email=mmyers@hilcorp.com Reason: I am approving this document Date: 2023.05.01 12:34:20 -08'00' Monty M Myers _____________________________________________________________________________________ Revised By: JNL 3/24/2023 SCHEMATIC Milne Point Unit Well: MPU B-40 Last Completed: 3/20/2023 PTD: 223-009 SLOTTED LINER DETAIL Size Top (MD) Top (TVD) Btm (MD) Btm (TVD) 4-1/2” 6496’ 4462’ 13325’ 4446’ CASING DETAIL Size Type Wt/ Grade/ Conn ID Top Btm BPF 20" Conductor 129.5 / X-52 / Weld N/A Surface 114’ N/A 9-5/8" Surface 47 / L-80 / TXP 8.525” Surface 2,240’ 0.0732 9-5/8" Surface 40 / L-80 / TXP 8.679” 2,240’ 6,494’ 0.0758 4-1/2” Solid / Slotted Liner 13.5 / L-80 / Hyd 625 3.920” 6,305’ 13,368’ 0.0149 TUBING DETAIL 3-1/2" Tubing 9.3 / L-80 / EUE 8RD 2.992” Surface 6,327’ 0.0087 OPEN HOLE / CEMENT DETAIL Driven 20” Conductor 12-1/4"Stg 1 –Lead 556 sx / Tail 400 sx Stg 2 –Lead 870 sx / Tail 270 sx 8-1/2” Cementless Slotted Liner TREE & WELLHEAD Tree Cameron 3 1/8" 5M w/ 3-1/8” 5M Cameron Wing Wellhead FMC 11” 5K x sliplock bottom w/ (2) 2-1/16” 5K outs GENERAL WELL INFO API#: 50-029-23745-00-00 Completion Date: 3/20/2023 WELL INCLINATION DETAIL KOP @ 242’ 90° Hole Angle @ 7,592’ MD TD =13,368’(MD) / TD =4,447’(TVD) 20” Orig. KB Elev.: 57.65’ / GL Elev.: 23.3’ 3-1/2” 7 2 9-5/8” 1 4/5 PB2: 10327’– 11372’ See Slotted Liner Detail PBTD =13,366’(MD) / PBTD =4,447’(TVD) 9-5/8” ‘ES’ Cementer @ 2,296’ PB 1: 6454’– 6497’ 4-1/2” 6 3 JEWELRY DETAIL No Top MD Item ID Upper Completion 1 5,804’ Sliding Sleeve 2.813” X profile, covered ports (opens down) 2.870” 2 5,857’ Zenith Gauge Carrier 2.865” 3 5,916’ X Nipple, 2.813” 2.820” 4 6,316’ 8.24” No Go Locater Sub (spaced out 2.00’) 6.170” 5 6,317’ Bullet Seals – TXP Top Box x Mule Shoe 6.200” Lower Completion 6 6,305’ 9-5/8” SLZXP Liner Top Packer 6.190” 7 13,366’ Shoe CASING AND LEAK-OFF FRACTURE TESTS Well Name:MPU B-40 Date:3/11/2023 Csg Size/Wt/Grade:9.625", 40# & 47#, L-80 Supervisor:Demoski/Toomey Csg Setting Depth:6494 TMD 4462 TVD Mud Weight:9.25 ppg LOT / FIT Press =637 psi . LOT / FIT =12.00 Hole Depth =6497 md Fluid Pumped=1.70 Bbls Volume Back =1.70 bbls Estimated Pump Output:0.101 Barrels/Stroke LOT / FIT DATA CASING TEST DATA Enter Strokes Enter Pressure Enter Strokes Enter Pressure Here Here Here Here ->00 ->00 ->260 ->4 182 ->4 101 ->8 425 ->6 188 ->12 652 ->8 298 ->16 827 ->9 339 ->20 1029 ->10 385 ->24 1232 ->11 454 ->28 1462 ->12 481 ->32 1705 ->13 516 ->36 1908 ->14 573 ->40 2170 ->15 601 ->44 2426 ->16 635 ->48 2623 ->17 674 ->50 2720 Enter Holding Enter Holding Enter Holding Enter Holding Time Here Pressure Here Time Here Pressure Here ->0 648 ->0 2720 ->1 580 ->5 2711 ->2 533 ->10 2704 ->3 505 ->15 2700 ->4 483 ->20 2694 ->5 463 ->25 2691 ->6 446 ->26 2691 ->7 434 ->27 2690 ->8 426 ->28 2690 ->9 414 ->29 2690 ->10 406 ->30 2689 ->11 404 -> ->12 395 -> ->13 394 -> ->14 384 ->15 384 -> 0 2 4 6 8 9 10 111213 14151617 0 4 8 12 16 20 24 28 32 36 40 44 48 50 0 100 200 300 400 500 600 700 800 900 1000 1100 1200 1300 1400 1500 1600 1700 1800 1900 2000 2100 2200 2300 2400 2500 2600 2700 2800 2900 3000 0 102030405060 Pr e s s u r e ( p s i ) Strokes (# of) LOT / FIT DATA CASING TEST DATA Pr e s s u r e ( p s i ) 648 580 533505483463446434426414406404395394384384 2720 2711 2704 2700 2694 269126912690269026902689 0 100 200 300 400 500 600 700 800 900 1000 1100 1200 1300 1400 1500 1600 1700 1800 1900 2000 2100 2200 2300 2400 2500 2600 2700 2800 2900 3000 0 5 10 15 20 25 30 35 Pr e s s u r e (p s i ) Time (Minutes) LOT / FIT DATA CASING TEST DATA Activity Date Ops Summary 3/1/2023 Finish up spotting the rig over the well, shim and level the rig. PJSM and skid rig floor to drill position. RU rig floor steam, air, water and mud lines. Set diverter annular on Tee, Install knife valve. Spot 5 star and MI shack. Work on rig acceptance checklist. Spot remaining shacks, power up same. Spot slop tank and water pump house. Install 1st section of diverter, Berm & spot cuttings box, Re-connect #1 drag chain. Put rig on highline power at 15:35 hours. Load 5" DP into the pipe shed, strap and tally pipe. Rig electrician calibrate and test the rig gas alarms. Work on rig acceptance checklist. Work on rig acceptance checklist. Spot fuel trailer and rock washer. Spot 2 water up right tanks and cement silos. Process 5" DP. Perform derrick inspection. Work on rig acceptance checklist. Process 5" DP. Inspect the save sub and grabber dies. Obtain RKB's. RU water house and upright tanks. Install diverter riser. 3/2/2023 Work on acceptance checklist. Finish loading DP into the shed, strap and tally same. Get the rock washer operational. Install the remaining diverter line. RU accumulator lines to diverter and knife valve. Slip and cut pullback cable on skate. PJSM, place mousehole in rotary table, PU 5'' drill pipe from the pipe shed racking stands in the derrick. SimOps: stock hopper room for spudding, MWD ready BHA, continue to work on acceptance checklist. Continue to PU and rack stands 5'' drill pipe in the derrick. Pull mousehole from rotary table. SimOps: Haliburton offload surface cement to silos. Load the pits with 580 bbls 8.8 ppg spud mud into pits. Place rig diverter warning signs. Perform diverter test. AOGCC inspector Austin McLeod waived witness at 05:40 on 3/1/23. Test performed on 5" DP. Knife valve open in 17 second, annular closed in 21 seconds. 2,950 psi system pressure, 1,800 psi after closing. 200 psi recovery = 34 seconds & full recovery = 158 seconds. 6 N2 bottle avg= 1,983 psi. Tested rig LEL and H2S gas alarms - good. Tested PVT and flow sensors - good. 16" diverter line length= 197.1', from substructure= 188.7'. Nearest ignition source= 87.4' (Sperry unit). Re-install mousehole in rotary table. Continue to PU 5'' drill pipe and rack back a total of 70 stands, PU and rack back 6 stands of HWDP and jars. Rig accepted at 15:30 hours. PU and rack back 6 stands of HWDP and jar. Lay down 30' mouse, remove thread protector from the floor and install 10' hole. Mobilze 12-1/4" tricone and Kymera to the rig floor. Hold pre-spud meeting with all parties involved - identify safe briefing areas and emergency response duties. MU 12-1/4" tricone bit, motor, crossover and 1 stand of 5" HWDP. RIH and tag a 110'. Flood mud lines with fresh water and fill stack with fresh water. PT lines to 3,800 psi - good test. Cleanout the conductor from 110' to 114' at 400 GPM and 40 RPM. Drill 12-1/4" surface hole from 114' to 219' (219' TVD). Drilled 105' = 70'/hr AROP. 400 GPM = 300 psi, 40 RPM = 1K ft-lbs TQ, WOB = 5-10K. PU = 50K, SO = 50K & ROT = 50K. MW = 8.9 ppg, Vis = 300. BROOH from 219' to 126'. POOH on elevators from 126' to 36'. Blow down the top drive. Break out the tricone. Bit grade: 0-0-NO-A-E-I-RR- BHA. MU the 12-1/4" Kymera bit. MU MWD tools with Dir, Gamma, Res, PWD and GWD to 97'. Initialize MWD tools. MU NM flex collars to 128'. Daily disposal to G&I = 0 bbls. Total disposal to G&I = 0 bbls. Daily water hauled from L-pad lake= 750 bbls. Total water hauled from L-pad lake = 750 bbls. Daily fluid loss = 0 bbls. Total fluid loss = 0 bbls. 3/3/2023 Continue to MU NM flex collars from 128' to tag at 160'. Attempt to work through with no success. LD 3rd NM flex collar. PU stand of 5" HWDP wash and ream from 157' to 219'. 380 GPM = 640 psi, 40 RPM = 2-5K ft-lbs TQ. Reamed stand 2 times and rack back stand of HWDP. MU last NM flex collar and RIH to 187'. Wash to down to 219'. Drill 12-1/4" surface hole from 219' to 466' (466' TVD). Drilled 247' = 54.8'/hr AROP. 450 GPM = 980 psi, 40 RPM = 2-3K ft-lbs TQ, WOB = 5-10K. PU = 68K, SO = 76K & ROT = 75K. MW = 9 ppg, Vis = 277, ECD = 9.64 ppg. At 350' start to build 3 deg/100'. Drill 12-1/4" surface hole from 466' to 980' (975' TVD). Drilled 514' = 85.7'/hr AROP. 450 GPM = 1,190 psi, 40 RPM = 3K ft-lbs TQ, WOB = 11K. PU = 80K, SO = 92K & ROT = 85K. MW = 9.0 ppg, Vis = 139, ECD = 9.63 ppg. At 750' build 4 deg/100'. Drill 12-1/4" surface hole from 980' to 1,504' (1,361' TVD). Drilled 514' = 85.7'/hr AROP. 500 GPM = 1,470 psi, 60 RPM = 5K ft-lbs TQ, WOB = 10-15K. PU = 90K, SO = 95K & ROT = 90K. MW = 9.2 ppg, Vis = 300, ECD = 10.0 ppg, max gas = 6 units. Last gyro survey at 989'. Drill 12-1/4" surface hole from 1,504' to 2,171' (1,856' TVD). Drilled 667' = 111.2'/hr AROP. 465 GPM = 1,340 psi, 80 RPM = 4-6K ft-lbs TQ, WOB = 2-5K. PU = 105K, SO = 98K & ROT = 100K. MW = 9.1+ ppg, Vis = 247, ECD = 10.42 ppg, max gas = 10 units. Begin 47 degree tangent section at 1,560'. Last survey at 2023.91 MD / 1,752.70 TVD, 46.42 deg INC, 229.51 deg AZM. Distance from WP12 = 18.73, 8.19 high & 16.85 left. Daily disposal to G&I = 1,174 bbls. Total disposal to G&I = 1,174 bbls. Daily water hauled from L-pad lake= 1,250 bbls. Total water hauled from L-pad lake = 2,000 bbls. Daily fluid loss = 0 bbls. Total fluid loss = 0 bbls. 3/4/2023 Drill 12-1/4" surface hole from 2,171' to 2,795' (2,282' TVD). Drilled 624' = 104'/hr AROP. 507 GPM = 1,490 psi, 80 RPM = 4-9K ft-lbs TQ, WOB = 4K. PU = 125K, SO = 90K & ROT = 107K. MW = 9.2 ppg, Vis = 160, ECD = 10.6 ppg, Max gas=3,592 units. Pumped 30 bbl hi-vis sweep at 2,457', back on time with 50% increase in cuttings. Continue to maintain 47 deg tangent section. Base of the permafrost logged at 2,118' MD (1,818' TVD). Drill 12-1/4" surface hole from 2,795' to 3,409' (2,688' TVD). Drilled 614' = 136.4'/hr AROP. 510 GPM = 1600 psi, 80 RPM = 9K ft-lbs TQ, WOB = 4K. PU = 130K, SO = 95K & ROT = 107K. MW = 9.3 ppg, Vis = 175, ECD = 10.65 ppg, Max gas=734 units. Continue to maintain 47 deg tangent section. During a connection, rig electrician attempted to put power factor corrector online tripping out hi line breaker. Rig put on generator power in about 10 minutes. Circulate and work pipe until back on highline power. All equipment back online and running. Drill 12-1/4" surface hole from 3,409' to 3,536' (2,777' TVD). Drilled 127' = 127'/hr AROP. 527 GPM = 1,690 psi, 80 RPM = 8K ft-lbs TQ, WOB = 10K. PU = 132K, SO = 98K & ROT = 110K. MW = 9.3 ppg, Vis = 158, ECD = 10.48 ppg, Max gas= 132 units. Continue to maintain 47 deg tangent section. Pumped 30 bbl hi-vis sweep at 3,536', back 300 strokes late with 20% increase in cuttings. Drill 12-1/4" surface hole from 3,536' to 4,264' (3,198' TVD). Drilled 728' = 121.3'/hr AROP. 557 GPM = 1,960 psi, 80 RPM = 10K ft-lbs TQ, WOB = 12K. PU = 152K, SO = 105K & ROT = 153K. MW = 9.3 ppg, Vis = 147, ECD = 10.07 ppg, Max gas= 130 units. Continue to maintain 47 deg tangent section. Drill 12-1/4" surface hole from 4,264' to 4,739' (3,643' TVD). Drilled 475' = 79.2'/hr AROP. 548 GPM = 2,147 psi, 80 RPM = 12K ft-lbs TQ, WOB = 12-15K. PU = 163K, SO = 110K & ROT = 131K. MW = 9.3 ppg, Vis = 125, ECD = 10.38 ppg, Max gas= 212 units. Continue to maintain 47 deg tangent section. Pumped 30 bbl hi-vis sweep at 4,549', back on time with 40% increase in cuttings. Last survey at 4,687.33 MD / 3,605.31 TVD, 45.66 deg INC, 239.67 deg AZM. Distance from WP12 = 10.57, 9.73 low & 4.14 left. Daily disposal to G&I = 1,958 bbls. Total disposal to G&I = 3,132 bbls. Daily water hauled from L-pad lake= 1,850 bbls. Total water hauled from L-pad lake = 3,850 bbls. Daily fluid loss = 0 bbls. Total fluid loss = 0 bbls. 50-029-23745-00-00API #: Well Name: Field: County/State: MP B-40 Milne Point Hilcorp Energy Company Composite Report , Alaska 3/2/2023Spud Date: 3/5/2023 Drill 12-1/4" surface hole from 4,739' to 5,165' (3,931' TVD). Drilled 426' = 71'/hr AROP. 553 GPM = 2,060 psi, 80 RPM = 12-15K ft-lbs TQ, WOB = 7-13K. PU = 175K, SO = 112K & ROT = 139K. MW = 9.3 ppg, Vis = 117, ECD = 10.1 ppg, Max gas = 207 units. Maintain 47 deg tangent section to 4985' then start build and turn at 4.2 deg/100'. Drill 12-1/4" surface hole from 5,165' to 5,787' (4,288' TVD). Drilled 622' = 103.7'/hr AROP. 553 GPM = 2,000 psi, 80 RPM = 16K ft-lbs TQ, WOB = 15K. PU = 195K, SO = 110K & ROT = 140K. MW = 9.2 ppg, Vis = 66, ECD = 9.88 ppg, Max gas = 634 units. Continue to build and turn at 4.2 Deg/100'. Logged top of Ugnu L-sand at 5,108' (3,909' TVD). Pumped 30 bbl hi-vis sweep at 5,548', back 500 stokes late with no increase. Drill 12-1/4" surface hole from 5,787' to 6,263' (4,403' TVD). Drilled 476' = 79.3'/hr AROP. 548 GPM = 2,260 psi, 80 RPM = 16K ft-lbs TQ, WOB = 20K. PU = 190K, SO = 105K & ROT = 135K. MW = 9.2 ppg, Vis = 92, ECD = 10.07 ppg, Max gas = 455 units. Continue to build and turn at 4.2 Deg/100'. Drill 12-1/4" surface hole from 6,263' to TD at 6,497' (4,455' TVD). Drilled 234' = 78'/hr AROP. 544 GPM = 2,030 psi, 80 RPM = 15K ft-lbs TQ, WOB = 10-13K. PU = 185K, SO = 103K & ROT = 140K. MW = 9.3 ppg, Vis = 69, ECD = 10.0 ppg, Max gas = 246 units. Logged the top of the SB_OA sand at 6,378'. Obtain final survey at 6,497.00 MD / 4,455.26 TVD, 90.20 deg INC, 292.38 deg AZM. Distance from WP12 = 24.84, 4.15 high & 24.49 right. Pump 30 bbl hi-vis sweep and circulate out of the well at 550 GPM = 1,500 psi, 80 RPM = 11-18K ft-lbs TQ reciprocating 90'. Back 500 strokes late with 0% increase. Good 9.3 ppg in/out vis 53 & YP = 25. Max gas 283 units. While RIH while circulating bit took weight and had a torque increase at 6,423'. PU and attempt to work past. Wash and ream back to TD. 3/6/2023 Continue to wash and ream from 6454' back to TD at 6497', 544 GPM = 1,800 psi, 80 RPM = 14-15K ft-lbs TQ. Obtain new final survey: 6,444.36' / 4,457.58' TVD, 84.46 deg INC, 290.29 deg AZM. Distance from WP12 = 25', 2.08' low & 24.16' right. Reamed out approximately 6 deg from previous survey. BROOH from 6,497' to 4,076' pulling 5-10 minutes/stand slowing as needed to clean up slides/tight spots. 550 GPM = 1,690 psi, 60 RPM = 14-16K ft-bs TQ, ECD= 10.29 ppg, max gas = 1,126 units. PU = 190K, SO = 105K, ROT = 140K. BROOH from 4,076' to 1,507' pulling 5-10 minutes/stand slowing as needed to clean up slides/tight spots. 550 GPM = 1,400 psi, 60 RPM = 8K ft-bs TQ, ECD = 10.29 ppg, max gas = 107 units. PU = 100K, SO = 88K, ROT = 92K. BROOH from 1,507' to 745' (HWDP) pulling 5-10 minutes/stand slowing as needed to clean up slides/tight spots. 550 GPM = 1,150 psi, 60 RPM = 2K ft-bs TQ, ECD = 10.23 ppg, max gas = 31 units. PU = 90K, SO = 80K, ROT = 85K. Attempt to POOH on elevator but unable to. BROOH from 745' to 468' at 450 GPM = 900 psi, 40 RPM = 15K ft-lbs TQ. TOOH on elevators from 468' to 375'. Blow down the top drive. TOOH from 375' to 190'. Lay down crossover and 3 NMFCs to 97'. Download MWD data. Lay down remaining BHA components. 12-1/4"" bit grade: PDC = 1-1-CT-N-X-I-NO-TD & Tri-cone = 1-1-WT-A-E-I-NO-TD. Lost 57 bbls while BROOH. Clean and clear the rig floor. Jet the flow line. Monitor the well with the trip. Static loss rate = 3.5 BPH. Mobilize casing running tools to the rig floor. RU Volant CRT, bail extensions, 9-5/8" handling equipment and casing tongs. MU crossover to FOSV. PJSM. MU 9-5/8"", 40#, L-80, TXP-BTC shoe track to 162' Baker Lok connections 1-4 with 21K ft-lbs TQ. HES rep installed top hat above float collar. Pump through shoe track and check floats - good. Static loss rate = 3.5 BPH. RIH with 9-5/8", 40#, L-80, DWC/C casing from 162' to 861'. TQ = 32.3K ft-lbs with Volant tool. Fill on the fly and top off every 10 joints. Installing centralizer per tally. Daily disposal to G&I = 1,616 bbls. Total disposal to G&I = 6,131 bbls. Daily water hauled from L-pad lake= 1,680 bbls. Total water hauled from L-pad lake = 7,060 bbls. Daily fluid loss = 57 bbls. Total fluid loss = 57 bbls. 3/7/2023 Continue RIH with 9-5/8", 40#, L-80, DWC/C casing from 861' to 2,293'. TQ = 32.3K ft-lbs with Volant tool. Fill on the fly and top off every 10 joints. Installing centralizer per tally. Loss rate = 3-5 BPH. CBU, staging to 5 BPM = 160 psi and working pipe slow from 2,293' to 2,335'. Lost 10 bbl while circulating. Continue RIH with 9-5/8", 40#, L-80, DWC/C casing from 2,335' to 3,065'. TQ = 32.3K ft-lbs with Volant tool. Fill on the fly and top off every 10 joints. Installing centralizer per tally. PU= 145K, SO= 85K. Loss rate = 3-5 BPH. Continue RIH with 9-5/8", 40#, L-80, DWC/C casing from 3,065' to 4,177'. TQ = 32.3K ft-lbs with Volant tool. Fill on the fly and top off every 10 joints. Installing centralizer per tally. Baker loc and MU ESC with pup joints as per HES rep to 4,253', TQ 40# TXP to 21K ft-lbs. Continue RIH with 9-5/8", 47#, L-80, TXP casing from 4,253' to 5,037'. TQ = 24K ft-lbs with Volant tool. Fill on the fly and top off every 10 joints. Installing centralizer per tally. PU = 245K & SO = 120K. Loss rate = 5 BPH. CBU staging the pumps up to 6 BPM = 420 psi ICP & 280 psi FCP reciprocating 30'. Lost 15 bbls while circulating. RIH with 9-5/8", 47#, L-80, TXP-BTC casing from 5,078' to 6,437'. TQ = 24K ft-lbs with Volant tool. Fill on the fly and top off every 10 joints. Installing centralizers as per tally. Wash down from 6,437' to TD at 6,497' at 3 BPM = 450 psi. PU = 325K & SO = 125K. Lost 87 bbls while running casing. Stage the pumps up to 6 BPM = 450 psi. Establish rotation at 1-5 RPM = 19K ft-lbs TQ reciprocating 30-60'. Circulate and condition the mud for the cement job. SimOps: Cementer spotted in and RU. Blow down top drive. Rig up cement lines to Volant tool cement swivel. Re-dope Volant cup and clean dies. Continue to circulate and condition the mud 6 BPM = 350 psi FCP. Hold PJSM with all parties involved. Pump 50 bbls of mud treated with Desco. Shut down the rig pumps. HES flood lines with fresh water and pump 5 bbls downhole. PT lines to 1,000/4,000 psi - good test. MW = 9.4 ppg in & 9.6 ppg out. Pump 1st stage cement job: Mix and pump 60 bbls of 10.0 ppg tuned spacer with 4# red dye & 5# Pol-E-Flake in 1st 10 bbls at 3.5 BPM = 209 psi. Drop by-pass plug. Mix and pump 232 bbls of 12.0 ppg lead cement (EconoCem cement, 2.347 ft^3/sk yield, 556 sks total) at 4 BPM = 365 psi. Daily disposal to G&I = 599 bbls. Total disposal to G&I = 6,730 bbls. Daily water hauled from L-pad lake= 470 bbls. Total water hauled from L-pad lake = 7,530 bbls. Daily fluid loss = 87 bbls. Total fluid loss = 144 bbls. 3/8/2023 Continue pumping 1st stage: Mix and pump 82 bbls of 15.8 ppg tail cement (Premium G cement, 1.152 ft^3/sk yield, 400 sks total) at 3.5 BPM = 500 psi. Drop shut off plug. HES pump 20 bbls water at 5 BPM = 500 psi. Displace with 279 bbls of 9.4 ppg spud mud from the rig at 6 BPM = 180 psi ICP & 311 psi FCP. Pumped 80 bbls of 9.4 ppg tuned spacer from Halliburton at 4 BPM = 230 psi. Pumped 96.2 bbls 9.4 ppg mud from the rig at 5.5 BPM = 230 psi ICP & 850 psi FCP. Slow rate to 3 BPM = 730 psi FCP, Bumped the plug at 953 stks, 1.7 bbls early, CIP @ 08:01. Pressure to 1,230 psi, Hold 3 min, bleed off pressure, floats held. Rotate and reciprocate until 5 bbls into spacer, PU = 420K. Shoe set at 6,494'. Pressure up to 3,900 psi attempting to shift open ESC, bleed off, then pressure to 4,000 psi, bleed off same. breakout volant, drop free fall opening device, MU volant, let fall 15 minutes, pressure to 2,340 psi shifting cementer tool open. No losses cementing or displacing. Stage up pump to 6 BPM = 340 psi. Circulate through the ES cementer at 2,296' with heavy sand returns. Calculated 1,500 strokes bottoms up in gauge hole. Observed trace Pol-E-Flake at 3,490 strokes. Observed spacer at 3,845 strokes, dump returns, at 4,000 strokes observe interface & trace of cement, at 4,600 strokes take returns to pits. Dumped total 76 bbls. Continue to circulate through ES cementer, 5.5 bpm = 150 psi for 4 BU total. Disconnect knife valve from accumulator. Drain stack and flush with black water 3 times. Re-connect knife valve to the accumulator. Clean rig floor cement valves. Break out the Volant, clean, dope the cup and MU the Volant. Circulate through the ES cementer at 2,296' at 4 BPM = 100 psi while prepping for the 2nd stage cement job. SimOps: Fuel the cement equipment. Continue to circulate. Hold PJSM with all parties involved. Warm up cement units. Break out the Volant, dope the cup and MU the Volant. Clean both pumps suction screens. Blow air through the cement line to the cement unit. Pump 2nd stage cement job: HES flood lines and pump 5 bbls of water downhole. Mix & pump 60 bbls of 10.0 ppg Tuned Spacer w/ 4# red dye & 5# Pol-E-Flake in 1st 10 bbls at 4 BPM = 175 psi. Mix & pump total 447 bbls 10.7 ppg ArcticCem lead cement (870 sx at 2.917 ft^3/sk yield) at 5 BPM= 430 psi ICP & 6 BPM = 621 psi FCP. At 290 bbls pumped start seeing spacer returns, dump returns to rock washer. Mix & pump 56 bbls of 15.8 ppg Premium G tail cement (270 sx at 1.156 ft^3/sk yield) at 3 BPM= 200 psi. Drop the closing plug. Pump 20 bbls of 8.34 ppg fresh water at 5 BPM = 260 psi. Displace cement with 9.4 ppg spud mud at 6 BPM = 300 psi ICP & 530 psi FCP. Slowed to 3 BPM = 430 psi for last 10 bbls. 500 strokes into the displace got cement to surface. Bumped plug at 1,470 strokes - on time. Pressure up 1,630 psi. The ES cementer shifted closed at 1,410 psi. Hold for 5 minutes. Bleed off and check for flow - no flow. CIP at 22:19 hours. Cement returned to surface = 98 bbls. Blow down lines. Disconnect the knife valve from the accumulator. Drain the cement from the stack to the cellar and flush with black water three times. Rig down the Volant CRT and vacuum out mud from the casing. SimOps: Empty and clean the pits. ND the knife valve. Hoist the diverter stack. Install the casing slips per wellhead rep with 100K on the slips. Remove 4" conductor valves and install 4" conductor outlet caps. SimOps: ND the diverter line. Empty and clean the pits. RD rock washer super sucker extensions. Welder cut the 9-5/8" casing. Lay down the cut joint and 20' pup joint. Cut joint length = 17.09'. Clear the rig floor of casing running equipment. ND the surface riser, diverter stack and diverter tee. Daily disposal to G&I = 1,368 bbls. Total disposal to G&I = 8,098 bbls. Daily water hauled from L-pad lake= 595 bbls. Total water hauled from L-pad lake = 8,125 bbls. Daily fluid loss = 0 bbls. Total fluid loss = 144 bbls. 3/9/2023 Finish ND diverter stack. Remove knife valve and diverter tee from the cellar. Mobilize the wellhead into the cellar. Wellhead rep install slip lock wellhead and torque to spec. PT void to 500 for 5 minutes and 3,800 psi for 10 minutes - good test. NU BOP stack. Install kill line and riser. SimOps: check wash pipe and adjust Kelly hose. Jet flow line clean and blow down cement line. Install test plug and 3-1/2" test joint. Rig up test equipment. Fill stack and flood lines with fresh water. Perform 250/3,000 psi shell test - good. Conduct initial BOPE test to 250/3,000 psi: UPR & LPR (2-7/8 x 5 VBRs) with 3-1/2 & 5 test joints, annular with 3-1/2 & 5 test joints, accumulator drawdown test and test gas alarms. All tests performed with fresh water against test plug. The states right to witness was waived by AOGCC inspector Kam St. John via email on 3/7/23 at 18:22 hours. Tests: 1. Annular with 3-1/2 test joint, 3 Demco kill, 5 TIW, choke valves 1, 12, 13 & 14 (passed). 2. UPR with 3- 1/2 test joint, HCR kill, 5 dart valve, choke valves 9 & 11 (passed). 3.Upper IBOP, manual kill, choke valves 5, 8 & 10 (passed). 4. Choke valves 4, 6 & 7 (passed). Lower IBOP failed low PT. It will be changed out and retested. 5. LPR with 2-1/2 test joint (passed). 6. UPR with 5 test joint, choke valve 2 (passed). 7. HCR choke (passed). 8. Manual choke (passed). 9. LPR with 5 test joint (passed). 10. Blind rams, choke valve 3 (passed). 11. Manual adjustable choke (passed). 12. Hydraulic super choke (passed). Accumulator Test: System pressure = 3,075 psi. Pressure after closure = 1,700 psi. 200 psi attained in 45 seconds. Full pressure attained in 183 seconds. Nitrogen Bottles - 6 at 1,917 psi. PJSM. Changeout the upper/lower IBOP assembly and saver sub. Attempt to PT new upper IBOP but would not hold pressure. Breakout new upper IBOP and install rebuilt upper IBOP. Daily disposal to G&I = 781 bbls. Total disposal to G&I = 8,879 bbls. Daily water hauled from L- pad lake= 275 bbls. Total water hauled from L-pad lake = 8,400 bbls. Daily fluid loss = 0 bbls. Total fluid loss = 144 bbls. 3/10/2023 Rebuild and bench test upper IBOP in the shop. Mobilize and install replacement upper IBOP. Rig up test equipment and re-test 2nd replacement upper IBOP. 250/3,000 psi, 5 minutes each test - good. Replace IBOP actuator damaged during IBOP replacement. Install ring Feder locking assemblies and safety wire. Attached link tilt bails. Pull the test plug and install wear bushing (ID = 9"). Blow down choke manifold and lines. Install 5" elevators. PJSM. PU used 8-1/2" Smith XR+CPS mill tooth bit and 6-3/4" Sperry mud motor set at 1.5 AKO to 32'. TIH 6 stands of HWDP with jars from 32' to 587'. Single in the hole with 30 joints of 5" DP from 587' to1,539'. TIH with 5" DP from the derrick from 1,539' to 2,205'. Wash and ream down from 2,205' to tag 2,298' at 400 GPM = 620 psi 30 RPM = 1K ft-lbs TQ. PU = 105K, SO = 78K and ROT = 94K. Drill cement plug, free fall closing device and ES cementer from 2,298' to 2,310' at 400 GPM = 700 psi, 30 RPM = 5K ft- lbs TQ & WOB = 5-10K. Wash and ream through ES cementer 3 times. Drift through without pumps or rotary. TIH to 2,491' and blow down the top drive. TIH from 2,491' to 6,104' filling DP every 2,000'. Adjust the Kelly hose. TIH from 6,104' to 6,202'. Wash and ream down from 6,202' to hard cement at 6,293' (started seeing soft cement/strings at 6,268'). Drill cement from 6,293' to 6,359' at 400 GPM = 1,050 psi, 30 RPM = 17K ft-lbs TQ, WOB = 15K. PU = 215K, SO = 90K and ROT = 137K. CBU at 400 GPM = 980 psi, 30 RPM = 17K ft-lbs TQ reciprocating 90'. Blow down the top drive. RU head pin, cement line and testing equipment. Flood the lines and purge the air. PT the 9-5/8" casing to 2,500 psi for 30 minutes charted - good test. Pumped 4.9 bbls & bled back 4.7 bbls. Blow down and RD testing equipment. Drill cement, plugs, BA and float equipment from 6,359' to 6,494' at 450 GPM = 1,260 psi, 50 RPM = 17K ft-lbs TQ, WOB =10-15K. All equipment on depth. Wash and ream through all equipment 3 times. Drill out rat hole from 6,494' to 6,497'. PU = 205K, SO = 95K & ROT = 135K. Drill 20' of new formation from 6,497' to 6,517' at 450 GPM = 1,210 psi, 50 RPM = 17K ft-lbs TQ, WOB = 8-10K. Lay down a single to 6,485'. Circulate and condition the mud for the FIT at 450 GPM = psi, 30 RPM = ft-lbs TQ reciprocating 80'. Good 9.2+ ppg MW in & out. Blow down the top drive. 3/11/2023 Perform flow check - static. RU testing equipment, flood lines and purge the air. Close UPR on 5" DP, pump down DP and the kill line. Perform 12.0 ppg FIT with 9.25 ppg MW at 4,462' TVD with 638 psi applied at surface - good test. Blow down and RD testing equipment. TOOH from 6,485' to 587'. Perform flow check - static. LD 5" HWDP and jars from 587' to 32'. LD mud motor and bit. Bit graded: 1-1-WT-A-E-2-NO-BHA. Lost 12.4 bbls TOOH. Remove master bushings and install split bushings. Mobilize BHA components to the rig floor. State loss rate = 2 BPH. PJSM. MU 8-1/2" NOV TK66 bit, NRP, 7600 Geo-Pilot and MWD with GR, Res, PWD and Dir to 82'. Initialize MWD tools. MU MWD iStar tool suite (recorded only) to 148'. Initialize iStar tools. MU BHA with 2 float subs, 3 NM flex collars, HWDP and jars to 336'. SimOps: Pressure test MPD to 300/1,500 psi. RIH with 8-1/2" lateral BHA on 5" DP from the pipe shed from 336' to 2,239'. Fill pipe. Shallow pulse test MWD and break in the Geo Pilot seal at 450 GPM = 1,150 psi, 30 RPM = 4K ft-lbs TQ. PU = 103K, SO = 82K & ROT = 85K. Blow down the top drive. RIH with 5" DP from the pipe shed from 2,239' to 6,137'. TIH with 5" DP from the derrick from 6,137' to 6,423'. Lost 17 bbls while RIH with DP. Daylight saving time. PJSM. Drain the riser. Pull the MPD riser and install the MPD RCD. Install the RCD head skirt for the drip pan. Fill pipe, break circulating and check for leaks - no leaks. PJSM. Pump pit 4 empty. Pump spacer. Displace the well from 9.3 ppg spud mud to 8.8 ppg FloPro at 7 BPM = 850 psi ICP, 30 RPM = 17K ft-lbs TQ. 3/12/2023 Finish displacement to 8.8 ppg FloPro NT at 7 BPM = 600 psi, 30 RPM = 11K ft-lbs TQ. Shut down and close MPD choke - no pressure build observed. Blow down lines. Slip and cut 59' drilling of line. SimOps: Clean underneath shakers and pit #4. PU laid down single and RIH from 6,486' to 6,517'. Obtain new slow pumps rates. Drill 8-1/2" lateral from 6,517' to 6,899' (4,475' TVD), Drilled 382' = 127.3'/hr AROP. 450 GPM = 1,310 psi, 80-120 RPM - 10K ft-lbs TQ, WOB = 7-18K. PU = 150K, SO = 103K & ROT = 122K. MW = 8.9 ppg, vis = 47, ECD = 10.2 ppg, max gas = 99 units. MPD full open while drilling and closed on connections with no pressure build. Drill 8-1/2" lateral from 6,899' to 7,640' (4,496' TVD), Drilled 741' = 123.5'/hr AROP. 511 GPM = 1,530 psi, 120 RPM - 11K ft-lbs TQ, WOB = 5- 15K. PU = 152K, SO = 102K & ROT = 125K. MW = 8.9 ppg, vis = 38, ECD = 9.96 ppg, max gas = 775 units. MPD full open while drilling and closed on connections with no pressure build. Pump 30 bbl hi-vis sweep at 7,565', back on time with 300% increase. Drill 8-1/2" lateral from 7,640' to 8,327' (4,503' TVD), Drilled 687' = 114.5'/hr AROP. 515 GPM = 1,590 psi, 120 RPM - 10K ft-lbs TQ, WOB = 5-15K. PU = 152K, SO = 97K & ROT = 125K. MW = 8.9 ppg, vis = 40, ECD = 9.92 ppg, max gas = 735 units. MPD full open while drilling and trapping a 9.3 ppg EMW on connections. Drill 8-1/2" lateral from 8,327' to 8,899' (4,480' TVD), Drilled 572' = 95.3'/hr AROP. 523 GPM = 1,810 psi, 120 RPM - 13K ft-lbs TQ, WOB = 10-16K. PU = 145K, SO = 95K & ROT = 121K. MW = 9.0 ppg, vis = 38, ECD = 10.2 ppg, max gas = 796 units. MPD full open while drilling and trapping a 9.3 ppg EMW on connections. Exited the OA sand at 8,676' and entered the NF clays. At 8,707' begin turning up targeting 95 deg in preparation for the upcoming fault. Pump 30 bbl hi-vis sweep at 8,613', back on time with 100% increase. Drilled 13 concretions for a total thickness of 104 (4.4% of the lateral). Last survey at 8,637.52' MD / 4,495.22' TVD, 91.20 deg INC, 293.00 deg AZM. Distance from WP12 = 15.21', 14.71' low & 3.87' left. Daily disposal to G&I = 1,130 bbls. Total disposal to G&I = 10,262 bbls. Daily water hauled from L-pad lake= 640 bbls. Total water hauled from L-pad lake = 9,210 bbls. Daily fluid loss = 0 bbls. Total fluid loss = 149 bbls. Daily metal recovered = 12 lbs. Total metal recovered = 16 lbs. 3/13/2023 Drill 8-1/2" lateral from 8,899' to 9,565' (4,474' TVD), Drilled 666' = 111'/hr AROP. 515 GPM = 1,890 psi, 120 RPM - 13K ft-lbs TQ, WOB = 5-15K. PU = 150K, SO = 98K & ROT = 125K. MW = 9.0 ppg, Vis = 40, ECD = 10.5 ppg, max gas = 532 units. MPD full open while drilling and trapping a 9.3 ppg EMW on connections. Continued at 95 inclination but did not encounter the sands. Observed fault #1 at 9,075' with 20 DTE throw and leveled off at 90 deg at 9,079'. Turned down to 87 deg at 9,185'. Entered the OA sand at 9,460' (784' out of zone) and leveled off at 90 deg. Drill 8-1/2"" lateral from 9,565' to 9,945' (4,473' TVD), Drilled 380' = 63.3'/hr AROP. 527 GPM = 1,830 psi, 120 RPM - 13K ft-lbs TQ, WOB = 5-15K. PU = 165K, SO = 85K & ROT = 123K. MW = 8.9 ppg, Vis = 36, ECD = 10.23 ppg, max gas = 733 units. MPD full open while drilling and trapping a 9.3 ppg EMW on connections. Pumped hi-vis sweep at 9,659', back 100 strokes late with 40% increase. Mud MBT at 5.5 ppb, perform 290 bbl new mud dump & dilute at 9,755'. At 9,735', began seeing 300 psi pressure increase on bottom & squeezing some fluid away. Suspect balling of BHA. Raise flow to 575 GPM and work pipe - no improvement. Lower flow to 425 with good results. Drill 8-1/2"" lateral from 9,945' to 10,515' (4,468' TVD), Drilled 570' = 95'/hr AROP. 456 GPM = 1,550 psi, 120 RPM - 17K ft-lbs TQ, WOB = 5-15K. PU = 160K, SO = 85K & ROT = 125K. MW = 9.1 ppg, Vis = 39, ECD = 10.26 ppg, max gas = 759 units. MPD full open while drilling and trapping a 9.3 ppg EMW on connections. At 10,420' begin climbing in structure targeting 98 deg. The objective is to log the top of the NC sand. Drill 8-1/2"" lateral from 10,515' to 11,085' (4,377' TVD), Drilled 570' = 95'/hr AROP. 525 GPM = 2,070 psi, 120 RPM - 14K ft-lbs TQ, WOB = 7-13K. PU = 148K, SO = 77K & ROT = 112K. MW = 9.1 ppg, Vis = 39, ECD = 10.99 ppg, max gas = 809 units. MPD full open while drilling and trapping a 9.3 ppg EMW on connections. Pumped hi-vis sweep at 10,515', back 100 strokes late with 20% increase. Exited the OA sand at 10,700' entering the NF clays. Logged the top of the NF clays at 10,893'. Drilled 19 concretions for a total thickness of 189' (4.2% of the lateral). Last survey at 10,921.57' MD / 4,406.12' TVD, 100.02 deg INC, 300.90 deg AZM. Distance from WP12 = 5.69', 5.69' low & 0.2' right. Daily disposal to G&I = 964 bbls. Total disposal to G&I = 11,226 bbls. Daily water hauled from L-pad lake= 775 bbls. Total water hauled from L-pad lake = 9,985 bbls. Daily fluid loss = 0 bbls. Total fluid loss = 149 bbls. Daily metal recovered = 9.5 lbs. Total metal recovered = 25.5 lbs. 3/14/2023 Drill 8-1/2" lateral from 11,085' to 11,372' (4,327' TVD). Drilled 287' = 114.8'/hr AROP. 525 GPM = 2,130 psi, 120 RPM = 15K ft-lbs TQ, WOB = 7-15K. PU = 145K, SO = 75K & ROT = 112K. MW = 9.1 ppg, Vis = 40, ECD = 11.3 ppg, max gas = 657 units. Logged the top of the NC sand at 11,220'. Obtain final survey. BROOH from 11,372' to 10,327' with 525 GPM = 2,090 psi and 120 RPM = 10K ft-lbs TQ. Perform open hole sidetrack with 525 GPM = 2,090 psi, 120 RPM = 11K ft-lbs TQ. Utilize 100% deflection at 165R and ream down at 75'-90' per hour from 10,327'. Observed 1.5 reduction of inclination from 91.28 deg to 89.70 deg at 10,389' with 3.9' of separation. Reduced deflection to 50% then 89 with inc cruise. Lowest inclination of 88.8 deg at 10,415' with 6.5' of separation. Perform 495 bbl new mud dilution to lower MBT from 10.5 ppb. Drill 8-1/2" lateral from 10,415' to 11,055' (4,462' TVD). Drilled 640' = 106.7'/hr AROP. 532 GPM = 1,920 psi, 120 RPM = 15K ft-lbs TQ, WOB = 14K. PU = 160K, SO = 80K & ROT = 120K. MW = 9.1 ppg, Vis = 37, ECD = 10.47 ppg, max gas = 924 units. MPD full open while drilling and trapping a 9.3 ppg EMW on connections. Drill 8-1/2" lateral from 11,055' to 11,717' (4,456' TVD). Drilled 640' = 106.7'/hr AROP. 525 GPM = 2,020 psi, 120 RPM = 13-16K ft-lbs TQ, WOB = 7-15K. PU = 165K, SO = 80K & ROT = 120K. MW = 9.1 ppg, Vis = 40, ECD = 10.55 ppg, max gas = 799 units. MPD full open while drilling and trapping a 9.3 ppg EMW on connections. Pumped 30 bbl hi-vis sweep at 11,466', back 300 strokes late with 50% increase. Drill 8-1/2" lateral from 11,717' to 12,419' (4,455' TVD). Drilled 702' = 117'/hr AROP. 523 GPM = 2,060 psi, 120 RPM = 13-14K ft-lbs TQ, WOB = 7-12K. PU = 161K, SO = 75K & ROT = 116K. MW = 9.1 ppg, Vis = 39, ECD = 10.69 ppg, max gas = 786 units. MPD full open while drilling and trapping a 9.3 ppg EMW on connections. At 12,323' start 290 bbl dump and dilute. Drilled 26 concretions for a total thickness of 239 (4.1% of the lateral). Last survey at 12,064.80' MD / 4,453.53' TVD, 89.10 deg INC, 309.19 deg AZM. Distance from WP12 = 11.9', 9.3' low & 7.42' left. Daily disposal to G&I = 1,165 bbls. Total disposal to G&I = 12,391 bbls. Daily water hauled from L-pad lake= 880 bbls. Total water hauled from L-pad lake = 10,865 bbls. Daily fluid loss = 0 bbls. Total fluid loss = 149 bbls. Daily metal recovered = 6 lbs. Total metal recovered = 31.5 lbs. 3/15/2023 Drill 8-1/2" lateral from 12,419' to 12,988' (4,446' TVD), 569' drilled = 94.8'/hr AROP. 525 GPM = 2040 PSI, 120-150 RPM = 14-15K ft/lbs TQ, WOB = 7-13K. PU = 170K, SO = 70K & ROT = 120K. MW = 9.1 ppg, Vis = 38, ECD = 10.69, max gas = 708 units. Sweep at 12,608', back 400 strokes late with 40% increase. MPD choke open while drilling and maintaining 9.3 EMW on connections. Drill 8-1/2" lateral from 12,988' to 13,368' (4,446' TVD), drilled 380' = 108.6'/hr AROP. 525 GPM = 2080 PSI, 120 RPM = 14K ft/lbs TQ, WOB = 10-15K. PU = 165K, SO = 65K & ROT = 120K. MW = 9.1 ppg, Vis = 40, ECD = 10.77, max gas = 846 units. MPD maintaining 9.3 EMW on connections. Obtain final survey. Pump 30 bbls high vis sweep, back 700 strokes late with 60% increase. Circulate 4 bottoms up, reciprocating pipe and racking back a stand every bottoms up from 13,368' to 13,086'. 525 GPM = 2070 PSI, 120 RPM = 13K TQ. MW = 9.1, Vis = 42, ECD = 10.8, max gas = 574 units. Trip back to BTM on elevators f/ 12988' t/ 13086' and continue circulating, 525 GPM, 2130 psi. Rot and reciprocate 90', 120 RPM, 12k Tq. PU 160k, SO 80k, Rot 125k. Finish prep mud pits & stage final truck arriving on location. PJSM for displacing. Pump 30 bbls high vis spacer, 25 bbls 8.45 ppg vis brine, 30 bbls SAPP pill #1. 25 bbls brine, 30 bbls SAPP pill #2, 25 bbls brine, 30 bbls SAPP pill #3 then 30 bbls high vis spacer. Displace with 995 bbls of 8.45 ppg viscosified brine with 3% lubes (1.5% 776 and 1.5% LoTorq). 6 BPM = 900 psi (ICP), 60 RPM = 11K ft-lbs Tq & 7 BPM = 690 psi (FCP), 60 RPM = 12K ft-lbs Tq. reciprocating 95' alternating stopping points. Shut down the pumps with clean 8.45 ppg viscosified brine to surface. No losses recorded. Blow down TD and Geo Span, monitor MPD for pressure build 4x with the final building from 14 psi to 73 psi in 5 min, EMW with trip margin= 9.0 ppg. Record new SPRs. In brine P/U= 170k, SO= 90K, ROT= 127K. SimOps: Clean Pit #3. BROOH from 13368' to 11777' pulling 5-10 minutes/stand slowing as needed to clean up slides/tight spots. Rack stands in Derrick. 450-475 GPM = 1380-1560 psi, 120 RPM = 10K ft-lbs Tq, MW in 8.7, Max gas = 501 units. PU = 165K, SO =93K & ROT = 125K. Loss rate = 12-20 BPH. MPD trap 120 psi on connections. Daily disposal to G&I = 2241 bbls. Total disposal to G&I = 14632 bbls. Daily water hauled from L-pad lake= 1010 bbls. Total water hauled from L-pad lake = 11875 bbls.Daily fluid loss = 0 bbls. Total fluid loss = 149 bbls. Daily metal recovered = 5 lbs. Total metal recovered = 36.5 lbs. 3/16/2023 BROOH from 11,777' to 10,232' pulling 3-5 minutes/stand slowing as need to clean up tight spots. Rack stands in the derrick. 450 GPM = 1300 PSI, 120 RPM = 16- 17K ft/lbs TQ, MW = 8.7 ppg, ECD = 9.83, max gas = 104 units. MPD maintain 9.3 ppg EMW on connections with 145 PSI. 5 BPH loss rate. Perform check trip from 10,232' to 10,420'.across openhole sidetrack point at 10,327'. ABI at 10,404' = 88.73 deg inclination verifying correct wellbore. BROOH from 10,420' to 10,232'. BROOH from 10,232' to 6,804' at 30'/min. 450 GPM = 1240 PSI, 120 RPM = 8K ft/lbs TQ, MW = 8.9 ppg, ECD = 9.76, max gas = 182 units. Higher loss rate attributed to MW increasing from 8.7 to 8.9 ppg while reaming out of zone interval in the NF clay from 9,460' to 8,676'. MPD maintain 9.3 ppg EMW on connections with 145 PSI. 89.2 bbls total lost on trip out. Pump BHA into the 9-5/8" casing shoe from 6,804' to 6,423' with 410 GPM = 1020 GPM. BHA pulled good into the casing shoe. Pump 30 bbl high vis sweep and circulate the casing clean with 550 GPM = 1500 PSI, 80 RPM = 6K ft/lbs TQ. Sweep back on time with 75% increase. Rack stand back to 6,423' then finished 2nd bottoms up. 8.8 ppg MW in/out. Blow down top drive & geo-span. Monitor well with MPD choke closed. 1st 5 minutes built 31 PSI. Bleed off and 2nd 5 minutes built 23 PSI. Bleed off and 3rd 5 minutes built 17 PSI. Calculated 8.9 ppg EMW with 8.8 MW and 17 PSI. Weight up the surface active volume to 9.1 ppg. Circulate 9.1 ppg while weighting up the returns on the fly to 9.1 ppg at 220 GPM = 450 psi, 30 RPM = 4-6K ft-lb Tq reciprocating 90'. Good 9.1 ppg in/out. Blow Down TopDrive. Monitor pressure with MPD. 4 psi build in 5 min. Bleed off and observe no psi build next 5 min. Open the RCD head bleeder, drain the line and well is static in 25 min. Continue observe the well for flow while PJSM and prep to pull RCD and well remain static. Remove MPD RCD & install trip nipple. Pump dry job and blow down the top drive & MPD lines. POOH laying down 5" DP singles to shed from 6,498' to HWDP at 336'. 18.75 bbls total loss, 2.9 BPH avg. Monitor Well - Slight losses. Daily disposal to G&I = 372 bbls. Total disposal to G&I = 15004 bbls. Daily water hauled from L-pad lake= 135 bbls. Total water hauled from L-pad lake = 12010 bbls. Daily fluid loss = 85 bbls. Total fluid loss = 234 bbls. Daily metal recovered = 2.5 lbs. Total metal recovered = 39 lbs. 3/17/2023 L/D HWDP and jars, 3 non-mag drill collar and float subs to 148'. Read MWD iStar tools. L/D iStar tools from 148' to 82'. Read MWD tools. L/D MWD tools, Geo- Pilot, NRP and bit. 8-1/2" PDC grade: 1-1-CT-A-X-I-NO-TD. 5 bbls losses during BHA, 1.7 BPH. Clear rig floor. Remove split bushings and install master bushings. Mobilize casing equipment to the rig floor. Rig up 4-1/2" tongs, elevators and slips. M/U 4-1/2" H625 XO on FOSV. Hold PJSM with all parties involved. 1.8 BPH static loss rate. M/U 4-1/2" round nose float show and crossover blank joint to 42'. Run 4-1/2", 13.5#, L-80, Hydril 625 liner as per tally to 7037' - alternate one 20' slotted joint and two 40' solid joints. Torque to 9,600 ft/lbs with Doyon double stack tongs. Install a free-floating stop ring and 7-1/2" O.D. centralizer on each joint. Lost 21.7 bbls while running liner. Ave loss rate = 2.1 BPH. Verify pipe count in pipe shed. Swap elevators. M/U Baker SLZXP LTP, R/D double stack tongs & R/U Drift for DP from Derrick. Remove crossover from FOSV. TIH one stand to 7169'. Pump 5 bbls through LTP to ensure clear flow path, 2 BPM = 100 psi. PU = 105K, SO = 86K, ROT = 90K, 10 RPM= 4K TQ, 20 RPM= 4K TQ. Blow down top drive. TIH with 4-1/2", 13.5#, L-80, H625 slotted liner on 5" DP from 7169' to 12974'. Drift Stands from Derrick. PU = 160K & SO = 105K. 1.5 BPH Losses. Daily disposal to G&I = 35 bbls. Total disposal to G&I = 15039 bbls. Daily water hauled from L- pad lake= 90 bbls. Total water hauled from L-pad lake = 12100 bbls. Daily fluid loss = 46 bbls. Total fluid loss = 280 bbls. Daily metal recovered = 1 lbs. Total metal recovered = 40 lbs. 3/18/2023 TIH with 4-1/2", 13.5#, L-80, H625 slotted liner on 5" drill pipe from 12,974' and tag bottom on depth at 13,368' with 10K. Drift stands from the derrick. PU = 160K & SO =105K. 11.2 bbls total losses running liner on drill pipe / 1.5 BPH avg. Rack back stand. M/U 5" pup joints (9.64' and 4.65'), FOSV, side entry sub and 19.69' pup joint. Pump 10 bbls at 4 BPM = 570 PSI to verify clear flow path. Drop 1.125" phenolic setting ball. Pump down with 27 bbl high vis sweep, 4 BPM = 600 PSI. Slow to 2 BPM = 290 PSI at 670 strokes. Ball on seat at 831 strokes. Pressure up to 2300 PSI and hold for 2 min, observed tool set at 2000 PSI. Set 30K down 2' higher than previous - verified set. Pressure up to 3000 PSI and hold for 2 min, observed tool neutralize at 2700 PSI. P/U & observer travel at 148K to confirm release. Pressure up and shear out ITTS at 4210 PSI. Flood kill and choke lines. Close upper 2-7/8" x 5" VBR on 5" pipe. PT the IA/LTP to 1500 PSI for 10 minutes charted (good test). RD circulating equipment and pup joints. Blow down lines. Top of liner at 6,305.05'. L/D pump out of liner tie-back and L/D drill pipe joint to 6,282' at 3 BPM = 300 PSI. Circulate out high vis sweep at 10 BPM = 1170 PSI while reciprocating pipe from 6,281' to 6,286'. Sweep back on time with no increase. Circulate a total of 1.5 bottoms up. Slip and cut 66' of drilling line and calibrate block height. Service blocks and top drive. 1 BPH losses. Pump dry job. POOH laying down 5" drill pipe from 6,282' to 5,267'. TIH 11 stands of excess drill pipe from 5,267' to 6,218'. Continue to POOH, lay down drill pipe from 6,218' and L/D LRT. Provide 24 hour notice to AOGCC for upcoming MIT/IA. Loss 16.8 bbls. Clean and clear the rig floor, mobilize 3 1/2'' tubing tools and equipment to the rig floor. Pull the wear bushing, R/U 3 1/2'' power tongs and handling equipment. Centrilift R/U spooler on rig floor, ready XO on FOSV. Monitor well, 1.75 bph static loss rate. PJSM, P/U bullet seal assembly and RIH on 3-1/2, 9.3#, L-80, EUE 8rd tubing as per tally to 399'. Torque to optimum @ 3130 ft-lbs with Doyon double stack tongs. Loss rate = 2 bph. M/U X nipple assembly, 1 joint, gauge carrier assembly to 480'. Install gauge and M/U Tec wire to gauge. MU 1 joint and sliding sleeve assembly to 528'. Orient Tec wire across blanked section of sleeve. RIH with injection completion on 3-1/2" tubing spooling tec wire, installing cannon clamps as per tally and testing the Tec wire every 1,000' from 528' to 2218'. Torque to optimum @ 3130 ft-lbs. PU = 52K & SO = 55K. Loss rate = 1.75 bph. Daily disposal to G&I = 404 bbls. Total disposal to G&I = 15443 bbls. Daily water hauled from L-pad lake= 65 bbls. Total water hauled from L-pad lake = 12165 bbls. Daily fluid loss = 30 bbls. Total fluid loss = 310 bbls. Daily metal recovered = 1 lbs. Total metal recovered = 41 lbs. Activity Date Ops Summary 3/19/2023 Run 3-1/2", 9.3#, L-80, EUE 8rd tubing as per tally from 2,218' to 6,328.57' and no-go with 10K (6,318.99' locator sub, 13.94' deep to liner tally). Install Cannon clamps as required to secure TEC wire. Test continuity every 1,000'. Torque to 3130 ft/lbs optimum. Observe seal drag when entering the liner tie-back. 15.9 bbls lost on liner run, 1.6 BPH avg. Space out: L/D joints #200 to 197. M/U four pup joints (10.28', 8.18', 6.19' and 3.10') and joint #197 to 6,288'. M/U 5" landing joint and XO subs, tubing hanger and perform TEC wire penetration. 2069.6 PSI & 85.1 deg F on tubing and 18.8 volts. 1 BPH static losses. Drain BOP stack. Land tubing string on hanger, observed 4-6K drag with seals entering the tie-back. R/U equipment to reverse circulate and flood lines. Unseat hanger, close annular and apply 400 PSI through the kill line to the IA. Strip up through the annular 9' but did not see the pressure dump. Picked up high enough to pull seals out of the liner tie-back. Bleed pressure off, open annular and land hanger. Observed drag as seals entered the tie-back on depth. Verify all surface equipment lined up correctly. Unseat hanger. Pump through kill line again and confirm open flow path. Line up and pump down the tubing to verify clear flow path. Observed pressure begin to build at 33 strokes. Pressure increased from 320 at 1 BPM to 470 while injecting 5 bbls. Shut down pump and observed immediate 150 PSI pressure drop then slowly dropping. Bleed off pressure and blow down the top drive. Close annular & pressure up to 500 PSI. Strip up 8' through annular with no pressure drop. Line up to pump down tubing, pick seals up another 5' and circulate freely with 1 BPM, 230 PSI. Slack off, observe seal drag with pressure increase as seal entered liner top. All depths corresponded with original depths. Blow down the top drive. Set hanger 1' off seat. Close annular and pressure up to 400 PSI on IA. Strip up 9' and observed pressure bleed off. PJSM for displacement. Reverse circulate 256.4 bbls of 8.5 ppg CIB at 5 BPM = 350 psi ICP, 490 psi FCP followed by 140.7 bbls diesel at 5 BPM = 490 psi ICP, 520 psi FCP- freeze protecting the 3 1/2'' x 9 5/8'' annulus to 2,295',Strip through annular to 2' off landing, closing circulating ports, Drain stack, open annular & rinse stack. Stack quit draining while blowing down Kill line. Fill stack via IA w/ corrosion inhibited brine. Attempt to drain stack, stopped draining after several feet down. Hook Vac truck up to IA and drain stack until Hanger visible. Wash hanger with water hose. Add H2O through Kill line & stack stopped draining again,Empty stack from top via Vac truck. Flush hanger top and R/D circulating lines on IA. Open IA valve and visually inspect, no abnormalities observed. Did find sand and small rubber in vac hose when disconnected. Flush hanger with water hose and clean with Vac truck from top. Land tubing on hanger at 6,326.57' with 30k on hanger @ 2.0 off NO-GO. WH Rep RILDS. R/D and B/D circulating lines from landing joint. R/U testing equipment. Fill & PT lines. Perform MIT IA to 3,500 psi for 30 minutes charted - good test. 6.6 bbls pumped, 6.6 bbls bled back. R/D circulating and test equipment. Pull landing joint. WHR install the BPV with dry rod. B/D & R/D injection line and kill line. Breakout XOs and L/D the landing joint. Suck out stack with Vac truck. PJSM. Pull the MPD riser. Remove the drip pan, turn buckles. N/D the BOP stack. N/D the spacer spool. Set BOP on pedestal and secure for transport. Install the CTS plug in the BPV. SimOps: Clean the Rockwasher & mud pits. Daily disposal to G&I = 471 bbls. Total disposal to G&I = 15914 bbls. Daily water hauled from L-pad lake= 120 bbls. Total water hauled from L-pad lake = 12285 bbls. Daily fluid loss = 17.4 bbls. Total fluid loss = 297.4 bbls. Daily metal recovered = 0 lbs. Total metal recovered = 41 lbs. 3/20/2023 Mobilize wellhead equipment into the cellar. N/U adapter flange & tree. Pressure test hanger void to 500 PSI for 5 minutes and 5000 PSI for 10 minutes - good test. Obtain final Centrilift readings: 1972.58 PSI, 82 deg F and 20.3 volts. Fill stack with diesel. Pressure test tree to 250 PSI low / 5000 PSI high - good test. On gen power at 09:45,Remove BPV/CTS plug. Rig up circulating equipment and pressure test lines to 1500 PSI. Bullhead 24.6 bbls of diesel freeze protection down the tubing at 1.5 BPM = 250 PSI ICP / 770 PSI FCP. Blow down lines and rig down circulating equipment. Secure well and obtain final readings: tubing 500 PSI and IA 0 PSI. Released rig at 13:00. 50-029-23745-00-00API #: Well Name: Field: County/State: MP B-40 Milne Point Hilcorp Energy Company Composite Report , Alaska Perform MIT IA to 3,500 psi for 30 minutes charted - good test. 6.6 bbls pumped, 6.6 bbls bled back. ACTIVITYDATE SUMMARY 3/21/2023 *** WELL SHUT-IN ON ARRIVAL.*** SHIFT VIKING-SD AT 5,804' MD w/ 3-1/2" 42BO (positive pressure change, appears open). SET 3" JETPUMP (ratio: 12B), IN VIKING-SD AT 5,804' MD. *** WELL SHUT-IN ON DEPARTURE, PAD OP NOTIFIED.*** 4/23/2023 Well Support Techs R/D the temporary production lines and power fluid lines. Installed new injection line and pressure tested line to 3650 psi. Well house and foundation was already set. 4/23/2023 ***WELL S/I ON ARRIVAL*** RAN 3'' GR (steel), SEE FLUID @ 2400' SLM, REALLY THICK FLUID (T-BIRD going to displace tubing) T-BIRD PUMPED 60 bbls PRODUCED WATER PULL 3'' JET PUMP @ 5789' SLM / 5804' MD CONTINUE WSR ON 4-24-23 ***WELL S/I ON DEPARTURE*** 4/23/2023 T/I= 300/0 Assist Slickline (Wellwork) Pumped 4 bbls of 60/40 methanol followed by 60 bbls of 90* produced water and 2 bbls of 60/40 down the tubing. Slickline in control of well upon departure. 4/24/2023 ***WELL S/I OM ARRIVAL*** 2' X 1-7/8'' STEM, 3-1/2 42-BO SHIFTING TOOL, TAG THICK FLUID @ 2100' SLM, TOOLS FALLING @ 30 fpm, (lrs pump 60 bbls diesel) CLOSE SLEEVE @ 5789' SLM / 5804' MD LRS PRESSURED UP ON IA TO 1500# HELD FOR 10 mins, 11# BLEED OFF (good test) ***WELL S/I ON DEPARTURE*** 4/24/2023 T/I=155/0 Load IA (Post RWO) Flushed TBG with 60 bbls of diesel. Pumped 160 bbls of 120* Inhibited 1% KCL followed by 196 bbls diesel down IA to load. Slickline slid sleeve shut. Pressured up IA to 1521 psi with 2.3 bbls diesel. IA lost 11 psi in 10 min. Bled IA to 300 psi and recovered 2 bbls. Final Whp's= 200/300 4/26/2023 T/I=0/0 MIT-IA Passed to 2121 psi. (Post RWO) Pressured up IA to 2226 psi with 4.6 bbls diesel. 1st 15 min IA lost 77 psi. 2nd 15 min IA lost 28 psi for a total loss of 105 psi in 30 min. Bled IA to 200 psi and recovered 3.4 bbls. Final Whps=0/200 Daily Report of Well Operations PBU MPB-40 TD Shoe Depth: PBTD: No. Jts. Returned RKB RKB to BHF RKB to THF Jts. 1 1 1 1 1 98 1 1 1 56 1 X Yes No X Yes No Fluid Description: Liner hanger Info (Make/Model): Liner top Packer?: Yes No Liner hanger test pressure:X Yes No Centralizer Placement: Preflush (Spacer) Type: Density (ppg) Volume pumped (BBLs) Lead Slurry Type:Sacks: Yield: Density (ppg) Volume pumped (BBLs) Mixing / Pumping Rate (bpm): Tail Slurry Type:Sacks: Yield: Density (ppg) Volume pumped (BBLs) Mixing / Pumping Rate (bpm): Post Flush (Spacer) Type: Density (ppg) Rate (bpm): Volume: Displacement: Type: Density (ppg) Rate (bpm): Volume (actual / calculated): FCP (psi): Pump used for disp:X Yes No Casing Rotated?X Yes No Reciprocated?X Yes No % Returns during job Cement returns to surface?X Yes No Spacer returns? Yes X No Vol to Surf: Cement In Place At: Date: Estimated TOC: Method Used To Determine TOC: Preflush (Spacer) Type: Density (ppg) Volume pumped (BBLs) Lead Slurry Type:Sacks: Yield: Density (ppg) Volume pumped (BBLs) Mixing / Pumping Rate (bpm): Tail Slurry Type:Sacks: Yield: Density (ppg) Volume pumped (BBLs) Mixing / Pumping Rate (bpm): Post Flush (Spacer) Type: Density (ppg) Rate (bpm): Volume: Displacement: Type: Density (ppg) Rate (bpm): Volume (actual / calculated): FCP (psi): Pump used for disp:X Yes No Casing Rotated? Yes X No Reciprocated? Yes X No % Returns during job Cement returns to surface?X Yes No Spacer returns? Yes X No Vol to Surf: Cement In Place At: Date: Estimated TOC: Method Used To Determine TOC: Post Job Calculations: Calculated Cmt Vol @ 0% excess: Total Volume cmt Pumped: Cmt returned to surface: Calculated cement left in wellbore: OH volume Calculated: OH volume actual: Actual % Washout: Casing (Or Liner) Detail Shoe Cut joint 10 3/4 678.77 90.74355.86 SE C O N D S T A G E Rig 22:19 Cement to surface Rotate Csg Recip Csg Ft. Min. PPG9.4 Shoe @ 6494 FC @ Top of Liner6,410.00 Floats Held 396.09 817 98 719 Spud Mud CASING RECORD County State Alaska Supv.D. Yessak / I. Toomey / C. Yearout Hilcorp Energy Company CASING & CEMENTING REPORT Lease & Well No.MP B-40 Date Run 7-Mar-23 Setting Depths Component Size Wt. Grade THD Make Length Bottom Top TXP Innovex 1.59 6,494.00 6,492.41 24.46 56.81 32.359 5/8 47.0 L-80 TXP Csg Wt. On Hook:325,000 Type Float Collar:Innovex No. Hrs to Run:17.5 9.4 6 1630 10 10.7 447 5 100 730 Bump Plug? FI R S T S T A G E 10Tuned Spacer 60 15.8 530 3 9.4 6 168.43/168.43 445.6/447.3 1230 0.1 Rig 15.8 82 Bump press trace of cement at surface Bump Plug? 8:01 3/8/2023 2,298 2296 6,494.006,497.00 CEMENTING REPORT Csg Wt. On Slips:100,000 Spud Mud Tuned Spacer 870 2.92 Stage Collar @ 60 Bump press 100 98 ES Cementer Closure OK 56 12 232 RKB to CHF Type of Shoe:Innovex Casing Crew:Doyon No. Jts. Delivered No. Jts. Run Length Measurements W/O Threads Ftg. Delivered Ftg. Run Ftg. Returned Ftg. Cut Jt. Ftg. Balance www.wellez.net WellEz Information Management LLC ver_04818br 3.5 ArcticCem Cement Type 83 total 9-5/8" x 12"1/4" bowspring centralizers ran. Two in shoe joint w/ stop rings 10' from each end. One floating on joint #2. One each with stop rings mid-joint on joint #3 & 4. One each on joints 5 to 25, every other joint to #47 then every third joint to #95. One each on joints #98 to #107. One each with stop rings on pup joints above and below ES cementer. One each on every third joint #110 to #155. Casing 9 5/8 40.0 L-80 TXP Tenaris 80.97 6,492.41 6,411.44 Float Collar 10 3/4 TXP Innovex 1.30 6,411.44 6,410.14 Casing 9 5/8 40.0 L-80 TXP Tenaris 39.43 6,410.14 6,370.71 Baffle Adapter 10 3/4 TXP Halliburton 1.39 6,370.71 6,369.32 Casing 9 5/8 40.0 L-80 TXP Tenaris 4,052.92 6,369.32 2,316.40 Casing Pup Joint 9 5/8 40.0 L-80 TXP 17.54 2,316.40 2,298.86 ES Cementer 10 3/4 TXP Halliburton 2.81 2,298.86 2,296.05 Casing Pup Joint 9 5/8 40.0 L-80 TXP 17.57 2,296.05 2,278.48 Casing 9 5/8 47.0 L-80 TXP Tenaris 2,221.67 2,278.48 56.81 EconoCem Cement 556 2.35 Premium G Cement 400 1.15 4 Premium G Cement 270 1.16 3/9/2023 38 Spud Mud X 2,298 Cement to surface 100 100 98 38 trace of cement at surface David Douglas Hilcorp Alaska, LLC Sr. Geotechnician 3800 Centerpoint Drive, Suite 1400 Anchorage, AK 99503 Tele: (907) 777-8337 E-mail: david.douglas@hilcorp.com Please acknowledge receipt by signing and returning one copy of this transmittal. Received By: Date: Date: 04/11/2023 To: Alaska Oil & Gas Conservation Commission Natural Resource Technician 333 W 7th Ave Suite 100 Anchorage, AK 99501 DATA TRANSMITTAL : WELL: MPU B-40 PTD: 223-009 API: 50-029-23745-00-00 FINAL LWD FORMATION EVALUATION + GEOSTEERING LOGS (02/26/2023 to 03/15/2023) • ROP, AGR, DGR, ABG, EWR-M5, ADR, Horizontal Presentation (2” & 5” MD/TVD Color Logs) • Final Definitive Directional Survey • Final Geosteering and EOW Report/Plots SFTP Transfer – Main Folders: MPU 40 FINAL LWD Subfolders: MPU B-40 FINAL Geosteering Subfolders: David Douglas Hilcorp Alaska, LLC Sr. Geotechnician 3800 Centerpoint Drive, Suite 1400 Anchorage, AK 99503 Tele: (907) 777-8337 E-mail: david.douglas@hilcorp.com Please acknowledge receipt by signing and returning one copy of this transmittal. Received By: Date: Please include current contact information if different from above. WELL: MPU B-40PB1 PTD: 223-009 API: 50-029-23745-70-00 FINAL LWD FORMATION EVALUATION LOGS (03/01/2023 to 03/06/2023) • ROP, AGR, EWR-M5, (2” & 5” MD/TVD Color Logs) • Final Definitive Directional Survey MPU B-40PB1 LWD Subfolders: WELL: MPU B-40PB2 PTD: 223-009 API: 50-029-23745-71-00 FINAL LWD FORMATION EVALUATION LOGS (02/26/2023 to 03/14/2023) • ROP, AGR, DGR, ABG, EWR-M5, ADR, Horizontal Presentation (2” & 5” MD/TVD Color Logs) • Final Definitive Directional Survey MPU B-40PB2 LWD Subfolders: Please include current contact information if different from above. 1 Regg, James B (OGC) From:Brooks, Phoebe L (OGC) Sent:Thursday, March 23, 2023 2:40 PM To:Doug Yessak - (C) Cc:Regg, James B (OGC) Subject:RE: Doyon 14 diverter 3-2-2023 Attachments:Diverter Doyon 14 03-02-23 Revised.xlsx Doug,  Attached is a revised report changing the AOGCC Rep to Waived per the remarks. Please update your copy.  Thank you,  Phoebe   Phoebe Brooks  Research Analyst  Alaska Oil and Gas Conservation Commission  Phone: 907‐793‐1242  CONFIDENTIALITY NOTICE: This e-mail message, including any attachments, contains information from the Alaska Oil and Gas Conservation Commission (AOGCC), State of Alaska and is for the sole use of the intended recipient(s). It may contain confidential and/or privileged information. The unauthorized review, use or disclosure of such information may violate state or federal law. If you are an unintended recipient of this e-mail, please delete it, without first saving or forwarding it, and, so that the AOGCC is aware of the mistake in sending it to you, contact Phoebe Brooks at 907-793-1242 or phoebe.brooks@alaska.gov.   From: Doug Yessak ‐ (C) <dyessak@hilcorp.com>   Sent: Thursday, March 2, 2023 4:23 PM  To: Regg, James B (OGC) <jim.regg@alaska.gov>; DOA AOGCC Prudhoe Bay <doa.aogcc.prudhoe.bay@alaska.gov>;  Brooks, Phoebe L (OGC) <phoebe.brooks@alaska.gov>  Cc: Nathan Sperry <Nathan.Sperry@hilcorp.com>; Ian Toomey ‐ (C) <itoomey@hilcorp.com>; Cody Dinger  <cdinger@hilcorp.com>; Alaska NS ‐ Doyon 14 ‐ DSMs <AlaskaNS‐Doyon14‐DSMs@hilcorp.com>  Subject: Doyon 14 diverter 3‐2‐2023  Doug Yessak   Hilcorp DSM    Doyon 14  907‐670‐3090 The information contained in this email message is confidential and may be legally privileged and is intended only for the use of the individual or entity named above. If you are not an intended recipient or if you have received this message in error, you are hereby notified that any dissemination, distribution, or copy of this CAUTION: This email originated from outside the State of Alaska mail system. Do not click links or open attachments unless you recognize the sender and know the content is safe. Milne Point Unit B-40PTD 2230090 Date: 3/2/2023 Development:X Exploratory: Drlg Contractor:Rig No.14 AOGCC Rep: Operator:Oper. Rep: Field/Unit/Well No.:Rig Rep: PTD No.:2230090 Rig Phone: Rig Email: MISCELLANEOUS:DIVERTER SYSTEM: Location Gen.:P Well Sign:P Designed to Avoid Freeze-up?P Housekeeping:P Drlg. Rig.P Remote Operated Diverter?P Warning Sign P Misc:NA No Threaded Connections?P 24 hr Notice:P Vent line Below Diverter?P ACCUMULATOR SYSTEM:Diverter Size:21 1/4 in. Systems Pressure:2950 psig P Hole Size:12 1/4 in. Pressure After Closure:1800 psig P Vent Line(s) Size:16 in.P 200 psi Recharge Time:34 Seconds P Vent Line(s) Length:189 ft.P Full Recharge Time:158 Seconds P Closest Ignition Source:86 ft.P Nitrogen Bottles (Number of):6 Outlet from Rig Substructure:181 ft.P Avg. Pressure: 1983 psig P Accumulator Misc:NA Vent Line(s) Anchored:P MUD SYSTEM:Visual Alarm Turns Targeted / Long Radius:P Trip Tank:P P Divert Valve(s) Full Opening:P Mud Pits:P P Valve(s) Auto & Simultaneous: Flow Monitor:P P Annular Closed Time: 21 sec P Mud System Misc:0 NA Knife Valve Open Time: 17 sec P Diverter Misc:NA GAS DETECTORS:Visual Alarm Methane:P P Hydrogen Sulfide:P P Gas Detectors Misc:0 NA Total Test Time:1 hrs Non-Compliance Items:0 Remarks: Submit to: STATE OF ALASKA ALASKA OIL AND GAS CONSERVATION COMMISSION Diverter Systems Inspection Report GENERAL INFORMATION WaivedDoyon *All Diverter reports are due to the agency within 5 days of testing* dyessak@hilcorp.com TEST DATA J. Hansen / J Charlie phoebe.brooks@alaska.gov Hilcorp Test preformed with 5" drill pipe, test H2S and LEL gas alarms ,AOGCC Rep Austin McLeod waived witness to test. Notification given 18:48 hrs on 2/28/23. 0 D Yessak/ I. Toomey 0 907-670-3096 TEST DETAILS jim.regg@alaska.gov AOGCC.Inspectors@alaska.gov Milne Point Unit B-40 Form 10-425 (Revised 05/2021)2023-0302_Diverter_Doyon14_MPU_B-40 Hilcorp Alaska LLC======jbr      J. Regg 1 Regg, James B (OGC) From:Alaska NS - Doyon 14 - DSMs <AlaskaNS-Doyon14-DSMs@hilcorp.com> Sent:Tuesday, March 21, 2023 6:02 PM To:Regg, James B (OGC); DOA AOGCC Prudhoe Bay; Brooks, Phoebe L (OGC); Wallace, Chris D (OGC) Cc:Nathan Sperry Subject:MPU B-40 MIT IA 3-20-2023 Attachments:MIT IA MPU B-40 3-20-23.xlsx Attached is the pre‐injection MIT IA report performed after rig installation for MPU B‐40.  Regards,  C.A. Demoski Hilcorp Alaska | Milne Point | Doyon Rig 14 DSM 907‐670‐3090 Office 907‐670‐3092 Rig Floor 907‐378‐7530 Personal Cell The information contained in this email message is confidential and may be legally privileged and is intended only for the use of the individual or entity named above. If you are not an intended recipient or if you have received this message in error, you are hereby notified that any dissemination, distribution, or copy of this email is strictly prohibited. If you have received this email in error, please immediately notify us by return email or telephone if the sender's phone number is listed above, then promptly and permanently delete this message. While all reasonable care has been taken to avoid the transmission of viruses, it is the responsibility of the recipient to ensure that the onward transmission, opening, or use of this message and any attachments will not adversely affect its systems or data. No responsibility is accepted by the company in this regard and the recipient should carry out such virus and other checks as it considers appropriate. CAUTION: This email originated from outside the State of Alaska mail system. Do not click links or open attachments unless you recognize the sender and know the content is safe. Milne Point Unit B-40PTD 2230090 Submit to: OPERATOR: FIELD / UNIT / PAD: DATE: OPERATOR REP: AOGCC REP: Well Pressures:Pretest Initial 15 Min.30 Min.45 Min.60 Min. PTD 223-009 Type Inj N Tubing 0 0 0 0 Type Test P Packer TVD 4443 BBL Pump 6.6 IA 0 3670 3625 3620 Interval O Test psi 3500 BBL Return 6.6 OA Result P Well Pressures:Pretest Initial 15 Min.30 Min.45 Min.60 Min. PTD Type Inj Tubing Type Test Packer TVD BBL Pump IA Interval Test psi BBL Return OA Result Well Pressures:Pretest Initial 15 Min.30 Min.45 Min.60 Min. PTD Type Inj Tubing Type Test Packer TVD BBL Pump IA Interval Test psi BBL Return OA Result Well Pressures:Pretest Initial 15 Min.30 Min.45 Min.60 Min. PTD Type Inj Tubing Type Test Packer TVD BBL Pump IA Interval Test psi BBL Return OA Result Well Pressures:Pretest Initial 15 Min.30 Min.45 Min.60 Min. PTD Type Inj Tubing Type Test Packer TVD BBL Pump IA Interval Test psi BBL Return OA Result Well Pressures:Pretest Initial 15 Min.30 Min.45 Min.60 Min. PTD Type Inj Tubing Type Test Packer TVD BBL Pump IA Interval Test psi BBL Return OA Result Well Pressures:Pretest Initial 15 Min.30 Min.45 Min.60 Min. PTD Type Inj Tubing Type Test Packer TVD BBL Pump IA Interval Test psi BBL Return OA Result Well Pressures:Pretest Initial 15 Min.30 Min.45 Min.60 Min. PTD Type Inj Tubing Type Test Packer TVD BBL Pump IA Interval Test psi BBL Return OA Result TYPE INJ Codes TYPE TEST Codes INTERVAL Codes Result Codes W = Water P = Pressure Test I = Initial Test P = Pass G = Gas O = Other (describe in Notes)4 = Four Year Cycle F = Fail S = Slurry V = Required by Variance I = Inconclusive I = Industrial Wastewater O = Other (describe in notes) N = Not Injecting Notes: STATE OF ALASKA ALASKA OIL AND GAS CONSERVATION COMMISSION Mechanical Integrity Test jim.regg@alaska.gov;AOGCC.Inspectors@alaska.gov;phoebe.brooks@alaska.gov chris.wallace@alaska.gov Notes: Notes: Hilcorp Alaska LLC Notes: Milne Point , MPU, B Pad C.A. Demoski 03/20/23 Notes:Pre-Injection MIT-IA on rig. Witness waived by Sean T Sullivan on 3/18/23 at 18:25. Monobore, No OA. Test to 3500 psi as per PTD. Notes: Notes: Notes: B-40 Form 10-426 (Revised 01/2017)2023-0320_MIT_MPU_B-40        J. Regg; 5/5/2023 1 Regg, James B (OGC) From:Alaska NS - Doyon 14 - DSMs <AlaskaNS-Doyon14-DSMs@hilcorp.com> Sent:Friday, March 10, 2023 2:21 PM To:Regg, James B (OGC); DOA AOGCC Prudhoe Bay; Brooks, Phoebe L (OGC) Cc:Doyon Rig14 Subject:MPU B-40 Initial BOP test report Attachments:MPU B-40 Doyon 14 BOP Test 3-10-23.xlsx Good afternoon,  Attached is the BOP test report for Hilcorp Alaska LLC well MPU B‐40 on rig Doyon 14 completed on 10 March 2023.  Regards,  C.A. Demoski Hilcorp Alaska LLC | Milne Point | Doyon 14 DSM 907‐670‐3090 Office 907‐670‐3092 Rig Floor 907‐378‐7530 Cell The information contained in this email message is confidential and may be legally privileged and is intended only for the use of the individual or entity named above. If you are not an intended recipient or if you have received this message in error, you are hereby notified that any dissemination, distribution, or copy of this email is strictly prohibited. If you have received this email in error, please immediately notify us by return email or telephone if the sender's phone number is listed above, then promptly and permanently delete this message. While all reasonable care has been taken to avoid the transmission of viruses, it is the responsibility of the recipient to ensure that the onward transmission, opening, or use of this message and any attachments will not adversely affect its systems or data. No responsibility is accepted by the company in this regard and the recipient should carry out such virus and other checks as it considers appropriate. CAUTION: This email originated from outside the State of Alaska mail system. Do not click links or open attachments unless you recognize the sender and know the content is safe. Milne Point Unit B-40PTD 2230090 STATE OF ALASKA OIL AND GAS CONSERVATION COMMISSION *All BOPE reports are due to the agency within 5 days of testing* Submit to:jim.regg@alaska.gov; AOGCC.Inspectors@alaska.gov; phoebe.brooks@alaska.gov Rig Owner:Rig No.:14 DATE:3/10/23 Rig Rep.:Rig Email: Operator: Operator Rep.:Op. Rep Email: Well Name:PTD #2230090 Sundry # Operation:Drilling:X Workover:Explor.: Test:Initial:X Weekly:Bi-Weekly:Other: Rams:250-3000 Annular:250-3000 Valves:250-3000 MASP:1514 MISC. INSPECTIONS:TEST DATA FLOOR SAFETY VALVES: Test Result/Type Test Result Quantity Test Result Housekeeping P Well Sign P Upper Kelly 1 FP Permit On Location P Hazard Sec.P Lower Kelly 1 FP Standing Order Posted P Misc.NA Ball Type 1 P Test Fluid Water Inside BOP 1 P FSV Misc 0 NA BOP STACK:Quantity Size/Type Test Result MUD SYSTEM:Visual Alarm Stripper 0 NA Trip Tank P P Annular Preventer 1 13-5/8"P Pit Level Indicators P P #1 Rams 1 2-7/8 X 5"P Flow Indicator P P #2 Rams 1 Blind P Meth Gas Detector P P #3 Rams 1 2-7/8 X 5"P H2S Gas Detector P P #4 Rams 0 NA MS Misc 0 NA #5 Rams 0 NA #6 Rams 0 NA ACCUMULATOR SYSTEM: Choke Ln. Valves 1 3-1/8x5000 P Time/Pressure Test Result HCR Valves 2 3-1/8x5000 P System Pressure (psi)3075 P Kill Line Valves 2 3-1/8x5000 P Pressure After Closure (psi)1700 P Check Valve 0 NA 200 psi Attained (sec)45 P BOP Misc 0 NA Full Pressure Attained (sec)183 P Blind Switch Covers:All stations Yes CHOKE MANIFOLD:Bottle Precharge:1000 P Quantity Test Result Nitgn. Bottles # & psi (Avg.):1917 P No. Valves 14 P ACC Misc 0 NA Manual Chokes 1 P Hydraulic Chokes 1 P Control System Response Time:Time (sec)Test Result CH Misc 0 NA Annular Preventer 16 P #1 Rams 7 P Coiled Tubing Only:#2 Rams 7 P Inside Reel valves 0 NA #3 Rams 7 P #4 Rams NA Test Results #5 Rams NA #6 Rams NA Number of Failures:2 Test Time:7.5 HCR Choke 2 P Repair or replacement of equipment will be made within days. HCR Kill 2 P Remarks: AOGCC Inspection 24 hr Notice Yes Date/Time 3-7-23 / 18:18 Waived By Test Start Date/Time:3/9/2023 16:30 (date)(time)Witness Test Finish Date/Time:3/10/2023 12:00 BOPE Test Report Notify the AOGCC of repairs with written confirmation to: AOGCC.Inspectors@alaska.gov Kam StJohn Doyon All test performed 250-3000psi for rams and choke valves with 3-1/2" & 5" test jt., Annular 250-3000 with 3-1/2" test jt. Test gas alarms and PVT's. Fail pass on lower and upper IBOP, Changed out-repaired & tested good. Test time does not include repair time. Hansen / Charlie Hilcorp Demoski / Toomey MPU B-40 Test Pressure (psi): rig14@doyondrilling.com skaNS-Doyon14-DSMs@hilcorp.c Form 10-424 (Revised 08/2022)2023-0310_BOP_Doyon14_MPU_B-40 Alaska LLC jbr        J. Regg; 6/13/2023    Žƒ•ƒ‹Žƒ† ƒ• ‘•‡”˜ƒ–‹‘‘‹••‹‘   333 West Seventh Avenue Anchorage, Alaska 99501-3572 Main: 907.279.1433 Fax: 907.276.7542 www.aogcc.alaska.gov   Monty M. Myers Drilling Manager Hilcorp North Slope, LLC 3800 Centerpoint Drive, Suite 1400 Anchorage, AK 99503 Re: Milne Point Field, Schrader Bluff Oil Pool, MPU B-40 Hilcorp North Slope, LLC Permit to Drill Number: 223-009 Surface Location: 608' FSL, 754' FWL, Sec. 18, T13N, R11E, UM, AK Bottomhole Location: 2455' FSL, 1823' FWL, Sec. 14, T13N, R10E, UM, AK Dear Mr. Myers: Enclosed is the approved application for the permit to drill the above referenced well. Per Statute AS 31.05.030(d)(2)(B) and Regulation 20 AAC 25.071, composite curves for all well logs run must be submitted to the AOGCC within 90 days after completion, suspension, or abandonment of this well, or within 90 days of acquisition of the data, whichever occurs first. This permit to drill does not exempt you from obtaining additional permits or an approval required by law from other governmental agencies and does not authorize conducting drilling operations until all other required permits and approvals have been issued. In addition, the AOGCC reserves the right to withdraw the permit in the event it was erroneously issued. Operations must be conducted in accordance with AS 31.05 and Title 20, Chapter 25 of the Alaska Administrative Code unless the AOGCC specifically authorizes a variance. Failure to comply with an applicable provision of AS 31.05, Title 20, Chapter 25 of the Alaska Administrative Code, or an AOGCC order, or the terms and conditions of this permit may result in the revocation or suspension of the permit. Sincerely, Brett W. Huber, Sr. Chair, Commissioner DATED this ___ day of February, 2023. 17 Brett W. Huber, Sr. Digitally signed by Brett W. Huber, Sr. Date: 2023.02.17 10:09:00 -09'00' 1a. Type of Work: 1b. Proposed Well Class: Exploratory - Gas Service - WAG Service - Disp 1c. Specify if well is proposed for: Drill Lateral Stratigraphic Test Development - Oil Service - Winj Single Zone Coalbed Gas Gas Hydrates Redrill Reentry Exploratory - Oil Development - Gas Service - Supply Multiple Zone Geothermal Shale Gas 2. Operator Name: 5. Bond: Blanket Single Well 11. Well Name and Number: Bond No. 3. Address: 6. Proposed Depth: 12. Field/Pool(s): MD: 13369' TVD: 4457' 4a. Location of Well (Governmental Section): 7. Property Designation: Surface: Top of Productive Horizon: 8. DNR Approval Number: 13. Approximate Spud Date: Total Depth: 9. Acres in Property: 14. Distance to Nearest Property: 4b. Location of Well (State Base Plane Coordinates - NAD 27): 10. KB Elevation above MSL (ft): 57.0' 15. Distance to Nearest Well Open Surface: x-571827 y- 6023730 Zone- 4 23.3' to Same Pool: 510' 16. Deviated wells: Kickoff depth: feet 17. Maximum Potential Pressures in psig (see 20 AAC 25.035) Maximum Hole Angle: degrees Downhole: Surface: Hole Casing Weight Grade Coupling Length MD TVD MD TVD Driven 20" 129.5# X-52 80' Surface Surface 106' 106' 47# L-80 TXP 2500' Surface Surface 2500' 2085' 40# L-80 TXP 4200' 2500' 2085' 6700' 4463' 8-1/2" 4-1/2" 13.5# L-80 Hyd 625 6819' 6550' 4453' 13369' 4457' 19.PRESENT WELL CONDITION SUMMARY (To be completed for Redrill and Re-Entry Operations) Junk (measured): TVD Hydraulic Fracture planned? Yes No 20. Attachments: Property Plat BOP Sketch Drilling Program Time v. Depth Plot Shallow Hazard Analysis Diverter Sketch Seabed Report Drilling Fluid Program 20 AAC 25.050 requirements Contact Name: Nathan Sperry Monty Myers Contact Email:nathan.sperry@hilcorp.com Drilling Manager Contact Phone:907-777-8450 Date: Permit to Drill API Number: Permit Approval Number:Date: Conditions of approval : If box is checked, well may not be used to explore for, test, or produce coalbed methane, gas hydrates, or gas contained in shales: Samples req'd: Yes No Mud log req'd: Yes No H2S measures: Yes No Directional svy req'd: Yes No Spacing exception req'd: Yes No Inclination-only svy req'd: Yes No Post initial injection MIT req'd: Yes No APPROVED BY Approved by: COMMISSIONER THE COMMISSION Date: Comm. Comm. Sr Pet Eng Sr Pet Geo Sr Res Eng 2/28/2023 8278' 12-1/4" 9-5/8" 21. I hereby certify that the foregoing is true and the procedure approved herein will not be deviated from without prior written approval. Surface Perforation Depth TVD (ft): GL / BF Elevation above MSL (ft): Perforation Depth MD (ft): Uncemented Slotted Liner Effect. Depth MD (ft): Effect. Depth TVD (ft): Authorized Title: Authorized Signature: Production Liner Intermediate Authorized Name: Conductor/Structural LengthCasing Cement Volume MDSize Plugs (measured): (including stage data) Stg 1 L - 554 sx / T - 395 sx 5104 18. Casing Program: Top - Setting Depth - BottomSpecifications Total Depth MD (ft): Total Depth TVD (ft): 2224484 STATE OF ALASKA ALASKA OIL AND GAS CONSERVATION COMMISSION PERMIT TO DRILL 20 AAC 25.005 Stg 2 L - 673 sx / T - 268 sx 1016' FNL, 2276' FWL, Sec. 24, T13N, R10E, UM, AK 2455' FSL, 1823' FWL, Sec. 14, T13N, R10E, UM, AK 81-054 3800 Centerpoint Drive, Suite 1400, Anchorage, AK 99503 Hilcorp Alaska, LLC 608' FSL, 754' FWL, Sec. 18, T13N, R11E, UM, AK ADL 047438 & 047437 MPU B-40 Milne Point Field Schrader Bluff Oil Pool Cement Quantity, c.f. or sacks Commission Use Only See cover letter for other requirements. Form 10-401 Revised 3/2021 This permit is valid for 24 months from the date of approval per 20 AAC 25.005(g) 2.1.2023 By Meredith Guhl at 9:05 am, Feb 02, 2023 Digitally signed by Monty M Myers DN: cn=Monty M Myers, c=US, o=Hilcorp Alaska, LLC, ou=Technical Services - AK Drilling, email=mmyers@hilcorp.com Reason: I am approving this document Date: 2023.02.01 16:58:49 -09'00' Monty M Myers * BOPE test to 3000 psi. Annular to 2500 psi. * Casing test of 9-5/8" surface casing and FIT digital data to AOGCC immediately upon performing the FIT. * MIT-IA to 3000 psi. 24 hour notic to AOGCC for opportunity to witness. * Approved to pre-produce for 30 days with reverse circulating jet pump. 24/7 manned monitoring on MPU B-pad if no surface safety valve while on IA power fluid injection when on 30 day pre-production. 223-009 X X X DSR-2/2/23 350 MGR15FEB2023 94 X X 1514 DLB 50-029-23745-00-00 1960 X DLB DLB 02/07/2023 X DLB * Offset well B-25 shut in plans to AOGCC after gyro survey completed and before drilling 8.5" OH GCW 02/17/23JLC 2/17/2023 2/17/2023Brett W. Huber, Sr.Digitally signed by Brett W. Huber, Sr. Date: 2023.02.17 10:09:43 -09'00' 2/17/2023 22224484 RBDMS JSB 021723 No t e s o n m a p • Pu r p l e c y l i n d e r r e p r e s e n t s a r e a w i t h i n ¼ m i l e r a d i u s o f p r o p o s e d i n j e c t o r B - 4 0 • B- 3 9 w e l l p l a n i s p o s t e d a n d w i l l b e dr i l l e d c l o s e t o t h e d r i l l i n g o f B - 4 0 • We l l s y m b o l s a r e p o s t e d a t T o p Sc h r a d e r O A l o c a t i o n PTD API WELL STATUS Top of SB OA (MD) Top of SB OA (TVDss) Top of Cement (MD) Top of Cement (TVD) Schrader OA status Zonal Isolation 189-016 50-029-21915-00-00 MPU B-23 Shut In Producer- Kuparuk 5880 -4424 Surface Surface Closed The 9-5/8" surface casing was set at 6,254' RKB / 4,678' TVD. The 9-5/8" casing was cemented with 1654 sacks (580 bbls) 12.3 ppg cement followed by 272 sacks (60 bbls) 15.8 ppg class G cement. Returns were lost after pumping 31 barrels of the displacement. Cement top estimated at 4400' MD. A top job was performed with 100 sacks 15.6 ppg Permafrost C cement. After 50 sacks of cement pumped, 100% cement returns were observed. 197-233 50-029-22841-00-00 MPU B-25 Active Injector- Kuparuk 7200 -4413 Surface Surface Closed The 9-5/8" surface casing was set at 7,420' MD / 4,574' TVD. The 9-5/8" casing was cemented in two stages with 1992 sacks Permafrost E cement and 335 sacks class G. 218-158 50-029-23616-00-00 MPU E-37 Active Producer- Schrader OA 7842 -4346 Surface Surface Open The 9-5/8" surface casing is set at 8,056' MD / 4,403' TVD. The 9-5/8" casing was cemented in two stages with the first stage consisting of 763 sacks Type I/II 12 ppg lead cement and 398 sacks G tail cement. Plug bumped, floats held, and full returns throughout the first stage. The second stage pumped through the stage tool consisted of 400 sacks 11.1 ppg lead cement and 289 sacks 15.8 ppg G tail cement. Positive indication of stage tool closure observed. 240 barrels of cement returned to surface. 185-034 50-029-21297-00-00 MPU B-09 Shut In Producer- Kuparuk 5782 -4383 Surface Surface Closed The 9-5/8" surface casing is set at 6,210' MD / 4,721' TVD. The 9-5/8" casing was cemented with 806 barrels 12 ppg ArcticSet, 56 barrels 15.8 ppg Class G cement. Cement was displaced with 463 barrels of mud, plug bumped, and floats held. Returns were lost 231 barrels into the displacement. A 15 barrel Arctic Set II top job was pumped. 185-062 50-029-21324-00-00 MPU B-07 Reservoir Abandoned Producer- Kuparuk 5958 -4402 Surface Surface Closed The 9-5/8" surface casing is set at 6,206' MD / 4,606' TVD. The 9-5/8" casing was cemented with 888 barrels of 12.2ppg Arctic Set III and 56 barrels of 15.8ppg Class G. Plug bumped, floats held, and circulation was lost with 888 barrels pumped away. A top job was pumped with 15 barrels of Arctic Set I, 2 barrels of cement returns to surface. Area of Review MPU B-40 SB OA Milne Point Unit (MPU) B-40 Application for Permit to Drill Version 1 2/1/2023 Table of Contents 1.0 Well Summary ........................................................................................................................... 2 2.0 Management of Change Information ........................................................................................ 3 3.0 Tubular Program:...................................................................................................................... 4 4.0 Drill Pipe Information: .............................................................................................................. 4 5.0 Internal Reporting Requirements ............................................................................................. 5 6.0 Planned Wellbore Schematic ..................................................................................................... 6 7.0 Drilling / Completion Summary ................................................................................................ 7 8.0 Mandatory Regulatory Compliance / Notifications .................................................................. 8 9.0 R/U and Preparatory Work ..................................................................................................... 11 10.0 N/U 21-1/4” 2M Diverter System ............................................................................................. 12 11.0 Drill 12-1/4” Hole Section ........................................................................................................ 14 12.0 Run 9-5/8” Surface Casing ...................................................................................................... 17 13.0 Cement 9-5/8” Surface Casing ................................................................................................. 23 14.0 BOP N/U and Test.................................................................................................................... 28 15.0 Drill 8-1/2” Hole Section .......................................................................................................... 29 16.0 Run 4-1/2” Injection Liner (Lower Completion) .................................................................... 34 17.0 Run 3-1/2” Tubing (Upper Completion) ................................................................................. 38 18.0 RDMO ...................................................................................................................................... 39 19.0 Post-Rig Work ......................................................................................................................... 40 20.0 Doyon 14 Diverter Schematic .................................................................................................. 41 21.0 Doyon 14 BOP Schematic ........................................................................................................ 42 22.0 Wellhead Schematic ................................................................................................................. 43 23.0 Days Vs Depth .......................................................................................................................... 44 24.0 Formation Tops & Information............................................................................................... 45 25.0 Anticipated Drilling Hazards .................................................................................................. 47 26.0 Doyon 14 Layout ...................................................................................................................... 50 27.0 FIT Procedure .......................................................................................................................... 51 28.0 Doyon 14 Choke Manifold Schematic ..................................................................................... 52 29.0 Casing Design ........................................................................................................................... 53 30.0 8-1/2” Hole Section MASP ....................................................................................................... 54 31.0 Spider Plot (NAD 27) (Governmental Sections) ...................................................................... 55 32.0 Surface Plat (As-Staked) (NAD 27) ......................................................................................... 56 Page 2 Milne Point Unit B-40 SB Injector Drilling Procedure 1.0 Well Summary Well MPU B-40 Pad Milne Point “B” Pad Planned Completion Type 3-1/2” Injection Tubing Target Reservoir(s) Schrader Bluff Oa Sand Planned Well TD, MD / TVD 13,369’ MD / 4,457’ TVD PBTD, MD / TVD 13,369’ MD / 4,457’ TVD Surface Location (Governmental) 608’ FSL, 754’ FWL, Sec. 18, T13N, R11E, UM, AK Surface Location (NAD 27) X= 571827 Y= 6023730 Top of Productive Horizon (Governmental) 1016' FNL, 2276’ FWL, Sec 24, T13N, R10E, UM, AK TPH Location (NAD 27) X= 568086 Y= 6022070 BHL (Governmental) 2455' FSL, 1823' FWL, Sec 14, T13N, R10E, UM, AK BHL (NAD 27) X= 562320 Y=6025491 AFE Drilling Days 17 days AFE Completion Days 3 days Maximum Anticipated Pressure (Surface) 1514 psig Maximum Anticipated Pressure (Downhole/Reservoir) 1960 psig Work String 5” 19.5# S-135 DS-50 & NC 50 KB Elevation above MSL: 33.7 ft + 23.3 ft = 57.0 ft GL Elevation above MSL: 23.3 ft BOP Equipment 13-5/8” x 5M Annular, (3) ea 13-5/8” x 5M Rams Page 3 Milne Point Unit B-40 SB Injector Drilling Procedure 2.0 Management of Change Information Page 4 Milne Point Unit B-40 SB Injector Drilling Procedure 3.0 Tubular Program: Hole Section OD (in)ID (in) Drift (in) Conn OD (in) Wt (#/ft) Grade Conn Burst (psi) Collapse (psi) Tension (k-lbs) Cond 20” 19.25”---X-52Weld 12-1/4”9-5/8” 8.681”8.525”10.625”47 L-80 TXP 6,870 4,750 1,086 9-5/8” 8.835”8.679”10.625”40 L-80 TXP 5,750 3,090 916 8-1/2” 4-1/2” 3.960”3.795”4.714”13.5 L-80 H625 9020 8540 279 Tubing 3-1/2” 2.992”2.867”4.500”9.3 L-80 EUE 8RD 9289 7399 163 4.0 Drill Pipe Information: Hole Section OD (in) ID (in)TJ ID (in) TJ OD (in) Wt (#/ft) Grade Conn M/U (Min) M/U (Max) Tension (k-lbs) Surface & Production 5”4.276” 3.25” 6.625” 19.5 S-135 GPDS50 36,100 43,100 560klb 5”4.276”3.25” 6.625”19.5 S-135 NC50 31,032 34,136 560klb All casing will be new, PSL 1 (100% mill inspected, 10% inspection upon delivery). Page 5 Milne Point Unit B-40 SB Injector Drilling Procedure 5.0 Internal Reporting Requirements 5.1 Fill out daily drilling report and cost report on WellEz. x Report covers operations from 6am to 6am x Click on one of the tabs at the top to save data entered. If you click on one of the tabs to the left of the data entry area – this will not save the data entered, and will navigate to another data entry. x Ensure time entry adds up to 24 hours total. x Try to capture any out of scope work as NPT. This helps later on when we pull end of well reports. x Enter the MD and TVD depths EVERY DAY whether you are making hole or not. 5.2 Afternoon Updates x Submit a short operations update each work day to mmyers@hilcorp, nathan.sperry@hilcorp.com and joseph.lastufka@hilcorp.com 5.3 Intranet Home Page Morning Update x Submit a short operations update each morning by 7am on the company intranet homepage. On weekend and holidays, ensure to have this update in before 5am. 5.4 EHS Incident Reporting x Health and Safety: Notify EHS field coordinator. x Environmental: Drilling Environmental Coordinator x Notify Drilling Manager & Drilling Engineer on all incidents x Submit Hilcorp Incident report to contacts above within 24 hrs 5.5 Casing Tally x Send final “As-Run” Casing tally to nathan.sperry@hilcorp.com and joseph.lastufka@hilcorp.com 5.6 Casing and Cement report x Send casing and cement report for each string of casing to mmyers@hilcorp.com nathan.sperry@hilcorp.com and joseph.lastufka@hilcorp.com 5.7 Hilcorp Milne Point Contact List: Title Name Work Phone Email Drilling Manager Monty Myers 907.777.8431 mmyers@hilcorp.com Drilling Engineer Nate Sperry 907.777.8450 nathan.sperry@hilcorp.com Completion Engineer Scott Pessetto 907.564.4373 Scott.Pessetto@hilcorp.com Geologist Graham Emerson 907.564.5242 Graham.Emerson@hilcorp.com Reservoir Engineer Joleen Oshiro 907.777.8486 Joleen.Oshiro@hilcorp.com Drilling Env. Coordinator Keegan Fleming 907.777.8477 kfleming@hilcorp.com EHS Director Laura Green 907.777.8314 lagreen@hilcorp.com Drilling Tech Joe Lastufka 907.777.8400 Joseph.Lastufka@hilcorp.com Page 6 Milne Point Unit B-40 SB Injector Drilling Procedure 6.0 Planned Wellbore Schematic Page 7 Milne Point Unit B-40 SB Injector Drilling Procedure 7.0 Drilling / Completion Summary MPU B-40 is a grassroots injector planned to be drilled in the Schrader Bluff OA sand. B-40 is part of a multi well development program targeting the Schrader Bluff sand on B-pad. Hilcorp requests to pre- produce for up to 30 days. The directional plan is a horizontal well with 12-1/4” surface hole with 9-5/8” surface casing set into the top of the Schrader Bluff OA sand. An 8-1/2” lateral section will be drilled. An injection liner will be run in the open hole section. The Doyon 14 will be used to drill and complete the wellbore. Drilling operations are expected to commence approximately February 28th, 2023, pending rig schedule. Surface casing will be run to 6,700’ MD / 4,463’ TVD and cemented to surface via a 2 stage primary cement job. Cement returns to surface will confirm TOC at surface. If cement returns to surface are not observed, necessary remedial action will be discussed with AOGCC engineers. All cuttings & mud generated during drilling operations will be hauled to the Milne Point “B” pad G&I facility. General sequence of operations: 1. MIRU Doyon 14 to well site 2. N/U & Test 21-1/4” Diverter and 16” diverter line 3. Drill 12-1/4” hole to TD of surface hole section. 4. Run and cement 9-5/8” surface casing 5. N/D diverter, N/U & test 13-5/8” x 5M BOP. Install MPD Riser 6. Drill 8-1/2” lateral to well TD. 7. Run 4-1/2” injection liner. 8. Run 3-1/2” tubing. 9. N/D BOP, N/U Tree, RDMO. Reservoir Evaluation Plan: 1. Surface hole: No mud logging. On Site geologist. LWD: GR + Res 2. Production Hole: No mud logging. On site geologist. LWD: GR + ADR (For geo-steering) Page 8 Milne Point Unit B-40 SB Injector Drilling Procedure 8.0 Mandatory Regulatory Compliance / Notifications Regulatory Compliance Ensure that all drilling and completion operations comply with all applicable AOGCC regulations. Operations stated in this PTD application may be altered based on sound engineering judgement as wellbore conditions require, but no AOGCC regulations will be varied from without prior approval from the AOGCC. If additional clarity or guidance is required on how to comply with a specific regulation, do not hesitate to contact the Anchorage Drilling Team. x Review all conditions of approval of the PTD on the 10-401 form. Ensure that the conditions of approval are captured in shift handover notes until they are executed and complied with. x BOPs shall be tested at (2) week intervals during the drilling and completion of MPU B-40. Ensure to provide AOGCC 24 hrs notice prior to testing BOPs. x The initial test of BOP equipment will be to 250/3000 psi & subsequent tests of the BOP equipment will be to 250/3000 psi for 5/5 min (annular to 50% rated WP, 2500 psi on the high test for initial and subsequent tests).Confirm that these test pressures match those specified on the APD. x If the BOP is used to shut in on the well in a well control situation or control fluid flow from the well bore, AOGCC is to be notified and we must test all BOP components utilized for well control prior to the next trip into the wellbore. This pressure test will be charted same as the 14 day BOP test. x All AOGCC regulations within 20 AAC 25.033 “Primary well control for drilling: drilling fluid program and drilling fluid system”. x All AOGCC regulations within 20 AAC 25.035 “Secondary well control for primary drilling and completion: blowout prevention equipment and diverter requirements”. o Ensure the diverter vent line is at least 75’ away from potential ignition sources x Ensure AOGCC approved drilling permit is posted on the rig floor and in Co Man office. x Casing pressure test criteria in 20 AAC 25.030 (e) Casing and Cementing,“A casing pressure test must be performed if BOPE is to be installed on a casing. The casing must be tested to hold a minimum surface pressure equal to 50 percent of the casing internal yield pressure. The test pressure must show stabilizing pressure and may not decline more than 10 percent within 30 minutes. The results of this test and any subsequent tests of the casing must be recorded as required by 20 AAC 25.070(1)”. Page 9 Milne Point Unit B-40 SB Injector Drilling Procedure AOGCC Regulation Variance Requests: 1) Hilcorp is requesting approval for a test period of pre-producing B-40 for up to 30 days via a reverse circulating jet pump completion. This will allow us to measure skin and evaluate the benefits of pre- producing our injectors in the future. During flow back, Hilcorp will have a 24/7 man watch while the well is online and producing. Section 19 details the steps required to make this happen. Note also that the MIT-IA has been changed from 2,500 psi to 3,500 psi. * Approved to pre-produce for 30 days with reverse circulation jet pump. * 24/7 manned monitoring on MPU B pad if no surface safety valve while on IA power fluid injection when on 30 day pre-production period. Page 10 Milne Point Unit B-40 SB Injector Drilling Procedure Summary of BOP Equipment & Notifications Hole Section Equipment Test Pressure (psi) 12 1/4”x 21-1/4” 2M Diverter w/ 16” Diverter Line Function Test Only 8-1/2” x 13-5/8” x 5M Hydril “GK” Annular BOP x 13-5/8” x 5M Hydril MPL Double Gate o Blind ram in btm cavity x Mud cross w/ 3” x 5M side outlets x 13-5/8” x 5M Hydril MPL Single ram x 3-1/8” x 5M Choke Line x 3-1/8” x 5M Kill line x 3-1/8” x 5M Choke manifold x Standpipe, floor valves, etc Initial Test: 250/3000 Subsequent Tests: 250/3000 Primary closing unit: NL Shaffer, 6 station, 3000 psi, 180 gallon accumulator unit. Primary closing hydraulics is provided by an electrically driven triplex pump. Secondary back-up is a 30:1 air pump, and emergency pressure is provided by bottled nitrogen. The remote closing operator panels are located in the doghouse and on accumulator unit. Required AOGCC Notifications: x Well control event (BOP’s utilized to shut in the well to control influx of formation fluids). x 24 hours notice prior to spud. x 24 hours notice prior to testing BOPs. x 24 hours notice prior to casing running & cement operations. x Any other notifications required in PTD. Regulatory Contact Information: AOGCC Jim Regg / AOGCC Inspector / (O): 907-793-1236 / Email:jim.regg@alaska.gov Mel Rixse / Petroleum Engineer / (O): 907-793-1231 / (C): 907-223-3605 / Email:melvin.rixse@alaska.gov Victoria Loepp / Petroleum Engineer / (O): 907-793-1247 / Email:Victoria.loepp@alaska.gov Primary Contact for Opportunity to witness:AOGCC.Inspectors@alaska.gov Test Inspection notification standardization format:http://doa.alaska.gov/ogc/forms/TestWitnessNotif.html Notification / Emergency Phone: 907-793-1236 (During normal Business Hours) Notification / Emergency Phone: 907-659-2714 (Outside normal Business Hours) Page 11 Milne Point Unit B-40 SB Injector Drilling Procedure 9.0 R/U and Preparatory Work 9.1 B-40 will utilize a newly set 20” conductor on B-pad. Ensure to review attached surface plat and make sure rig is over appropriate conductor. 9.2 Ensure PTD and drilling program are posted in the rig office and on the rig floor. 9.3 Install landing ring. 9.4 Insure (2) 4” nipples are installed on opposite sides of the conductor with ball valves on each. 9.5 Level pad and ensure enough room for layout of rig footprint and R/U. 9.6 Rig mat footprint of rig. 9.7 MIRU Doyon 14. Ensure rig is centered over conductor to prevent any wear to BOPE or wellhead. 9.8 Mud loggers WILL NOT be used on either hole section. 9.9 Mix spud mud for 12-1/4” surface hole section. Ensure mud temperatures are cool (<80qF). 9.10 Ensure 6” liners in mud pumps. x Continental EMSCO FB-1600 mud pumps are rated at 4665 psi, 462 gpm @ 110 spm @ 95% volumetric efficiency. Page 12 Milne Point Unit B-40 SB Injector Drilling Procedure 10.0 N/U 21-1/4” 2M Diverter System 10.1 N/U 21-1/4” Hydril MSP 2M Diverter System (Diverter Schematic attached to program). x N/U 16-3/4” 3M x 21-1/4” 2M DSA on 16-3/4” 3M wellhead. x N/U 21-1/4” diverter “T”. x Knife gate, 16” diverter line. x Ensure diverter R/U complies with AOGCC reg 20.AAC.25.035(C). x Diverter line must be 75 ft from nearest ignition source x Place drip berm at the end of diverter line. 10.2 Notify AOGCC. Function test diverter. x Ensure that the knife gate and annular are operated on the same circuit so that knife gate opens prior to annular closure. x Ensure that the annular closes in less than 45 seconds (API Standard 64 3rd edition March 2018 section 12.6.2 for packing element ID greater than 20”) 10.3 Ensure to set up a clearly marked “warning zone” is established on each side and ahead of the vent line tip. “Warning Zone” must include: x A prohibition on vehicle parking x A prohibition on ignition sources or running equipment x A prohibition on staged equipment or materials x Restriction of traffic to essential foot or vehicle traffic only. Page 13 Milne Point Unit B-40 SB Injector Drilling Procedure 10.4 Rig & Diverter Orientation: x May change on location Page 14 Milne Point Unit B-40 SB Injector Drilling Procedure 11.0 Drill 12-1/4” Hole Section 11.1 P/U 12-1/4” directional drilling assembly: x Ensure BHA components have been inspected previously. x Drift and caliper all components before M/U. Visually verify no debris inside components that cannot be drifted. x Use GWD until MWD surveys are clean. x Confirm with engineer whether or not to continue capturing GWD surveys to TD x Ensure TF offset is measured accurately and entered correctly into the MWD software. x Have DD run hydraulics calculations on site to ensure optimum nozzle sizing. Hydraulics calculations and recommended TFA is attached below. x Drill string will be 5” 19.5# S-135. x Run a solid float in the surface hole section. 11.2 Begin drilling out from 20” conductor at reduced flow rates to avoid broaching the conductor. x Consider using a trash bit to clean out conductor to mitigate potential damage from debris in conductor. 11.3 Drill 12-1/4” hole section to section TD, in the Schrader OA sand. Confirm this setting depth with the Geologist and Drilling Engineer while drilling the well. x Monitor the area around the conductor for any signs of broaching. If broaching is observed, Stop drilling (or circulating) immediately notify Drilling Engineer. x Efforts should be made to minimize dog legs in the surface hole. Keep DLS < 6 deg / 100. x Hold a safety meeting with rig crews to discuss: x Conductor broaching ops and mitigation procedures. x Well control procedures and rig evacuation x Flow rates, hole cleaning, mud cooling, etc. x Pump sweeps and maintain mud rheology to ensure effective hole cleaning. x Keep mud as cool as possible to keep from washing out permafrost. x Pump at 400-600 gpm. Monitor shakers closely to ensure shaker screens and return lines can handle the flow rate. x Ensure to not out drill hole cleaning capacity, perform clean up cycles or reduce ROP if packoff’s, increase in pump pressure, or changes in hookload are seen x Slow in/out of slips and while tripping to keep swab and surge pressures low x Ensure shakers are functioning properly. Check for holes in screens on connections. x Have the flowline jets hooked up and be ready to jet the flowline at the first sign of pea gravel, clay balling or packing off. x Adjust MW and viscosity as necessary to maintain hole stability, ensure MW is at a 9.2 minimum at TD (pending MW increase due to hydrates). x Drill ahead using GWD. Take MWD surveys every stand drilled and swap to MWD when MWD surveys clean up. Page 15 Milne Point Unit B-40 SB Injector Drilling Procedure x Gas hydrates have not been seen on B-pad. However, be prepared for them. In MPU they have been encountered typically around 2100’-2400’ TVD (just below permafrost). Be prepared for hydrates: x Gas hydrates can be identified by the gas detector and a decrease in MW or ECD x Monitor returns for hydrates, checking pressurized & non-pressurized scales x Do not stop to circulate out gas hydrates – this will only exacerbate the problem by washing out additional permafrost. Attempt to control drill (150 fph MAX) through the zone completely and efficiently to mitigate the hydrate issue. Flowrates can also be reduced to prevent mud from belching over the bell nipple. x Gas hydrates are not a gas sand, once a hydrate is disturbed the gas will come out of the well. MW will not control gas hydrates, but will affect how gas breaks out at surface. x AC: x There are no wells with clearance factors < 1.0 11.4 12-1/4” hole mud program summary: x Density: Weighting material to be used for the hole section will be barite. Additional barite or spike fluid will be on location to weight up the active system (1) ppg above highest anticipated MW. We will start with a simple gel + FW spud mud at 8.8 ppg and TD with 9.2+ ppg. Depth Interval MW (ppg) Surface –Base Permafrost 8.9+ Base Permafrost - TD 9.2+ MW can be cut once ~500’ below hydrate zone x PVT System: MD Totco PVT will be used throughout the drilling and completion phase. Remote monitoring stations will be available at the driller’s console, Co Man office, Toolpusher office, and mud loggers office. x Rheology: Aquagel and Barazan D+ should be used to maintain rheology. Begin system with a 75 YP but reduce this once clays are encountered. Maintain a minimum 25 YP at all times while drilling. Be prepared to increase the YP if hole cleaning becomes an issue. x Fluid Loss: DEXTRID and/or PAC L should be used for filtrate control. Background LCM (10 ppb total) SafeCarb’s/Fibrous LCM/Graphite can be used in the system while drilling the surface interval to prevent losses and strengthen the wellbore. x Wellbore and mud stability:Additions of CON DET PRE-MIX/DRIL N SLIDE are recommended to reduce the incidence of bit balling and shaker blinding when penetrating the high-clay content sections of the Sagavanirktok and the heavy oil sections of the UGNU 4A. Maintain the pH in the 8.5 – 9.0 range with caustic soda. Daily additions of ALDACIDE G / X-CIDE 207 MUST be made to control bacterial action. Minimum EMW needed = 8.46 ppg. DLB Page 16 Milne Point Unit B-40 SB Injector Drilling Procedure x Casing Running:Reduce system YP with DESCO as required for running casing as allowed (do not jeopardize hole conditions). Run casing carefully to minimize surge and swab pressures. Reduce the system rheology once the casing is landed to a YP < 20 (check with the cementers to see what YP value they have targeted). System Type:8.8 – 9.2 ppg Pre-Hydrated Aquagel/freshwater spud mud Properties: Section Density Viscosity Plastic Viscosity Yield Point API FL pH Temp Surface 8.8 –9.8 75-175 20 - 40 25-45 <10 8.5 –9.0 ” 70 F System Formulation: Gel + FW spud mud Product- Surface hole Size Pkg ppb or (% liquids) M-I Gel 50 lb sx 25 Soda Ash 50 lb sx 0.25 PolyPac Supreme UL 50 lb sx 0.08 Caustic Soda 50 lb sx 0.1 SCREENCLEEN 55 gal dm 0.5 11.5 At TD; PU 2-3 stands off bottom, CBU, pump tandem sweeps and drop viscosity. 11.6 RIH to bottom, proceed to BROOH to HWDP x Pump at full drill rate (400-600 gpm), and maximize rotation. x Pull slowly, 5 – 10 ft / minute. x Monitor well for any signs of packing off or losses. x Have the flowline jets hooked up and be ready to jet the flowline at the first sign of clay balling. x If flow rates are reduced to combat overloaded shakers/flowline, stop back reaming until parameters are restored. 11.7 TOOH and LD BHA Page 17 Milne Point Unit B-40 SB Injector Drilling Procedure 12.0 Run 9-5/8” Surface Casing 12.1 R/U Weatherford 9-5/8” casing running equipment (CRT & Tongs) x Ensure 9-5/8” TXP x NC50 XO on rig floor and M/U to FOSV. x Use BOL 2000 thread compound. Dope pin end only w/ paint brush. x R/U of CRT if hole conditions require. x R/U a fill up tool to fill casing while running if the CRT is not used. x Ensure all casing has been drifted to 8-1/2” on the location prior to running. x Note that 47# drift is 8.525” x Be sure to count the total # of joints on the location before running. x Keep hole covered while R/U casing tools. x Record OD’s, ID’s, lengths, S/N’s of all components w/ vendor & model info. 12.2 P/U shoe joint, visually verify no debris inside joint. 12.3 Continue M/U & thread locking 120’ shoe track assembly consisting of: 9-5/8” Float Shoe 1 joint – 9-5/8” TXP, 2 Centralizers 10’ from each end w/ stop rings 1 joint –9-5/8” TXP, 1 Centralizer mid joint w/ stop ring 9-5/8” Float Collar w/ Stage Cementer Bypass Baffle ‘Top Hat’ 1 joint –9-5/8” TXP, 1 Centralizer mid joint with stop ring 9-5/8” HES Baffle Adaptor x Ensure bypass baffle is correctly installed on top of float collar. x Ensure proper operation of float equipment while picking up. x Ensure to record S/N’s of all float equipment and stage tool components. This end up. Bypass Baffle Page 18 Milne Point Unit B-40 SB Injector Drilling Procedure 12.4 Float equipment and Stage tool equipment drawings: Page 19 Milne Point Unit B-40 SB Injector Drilling Procedure 12.5 Continue running 9-5/8” surface casing x Fill casing while running using fill up line on rig floor. x Use BOL 2000 thread compound. Dope pin end only w/ paint brush. x Centralization: x 1 centralizer every joint to ~ 1000’ MD from shoe x 1 centralizer every 2 joints to ~2,000’ above shoe (Top of Lowest Ugnu) x Verify depth of lowest Ugnu water sand for isolation with Geologist x Utilize a collar clamp until weight is sufficient to keep slips set properly. x Break circulation prior to reaching the base of the permafrost if casing run indicates poor hole conditions. x Any packing off while running casing should be treated as a major problem. It is preferable to POH with casing and condition hole than to risk not getting cement returns to surface. 12.6 Install the Halliburton Type H ES-II Stage tool so that it is positioned at least 100’ TVD below the permafrost. x Install centralizers over couplings on 5 joints below and 5 joints above stage tool. x Do not place tongs on ES cementer, this can cause damage to the tool. x Ensure tool is pinned with 6 opening shear pins. This will allow the tool to open at 3300 psi. 9-5/8” 40# L-80 TXP Make-Up Torques: Casing OD Minimum Optimum Maximum 9-5/8”18,860 ft-lbs 20,960 ft-lbs 23,060 ft-lbs 9-5/8” 47# L-80 TXP MUT: Casing OD Minimum Optimum Maximum 9-5/8”21,440 ft-lbs 23,820 ft-lbs 26,200 ft-lbs Page 20 Milne Point Unit B-40 SB Injector Drilling Procedure Page 21 Milne Point Unit B-40 SB Injector Drilling Procedure 12.7 Continue running 9-5/8” surface casing x Centralizers: 1 centralizer every 3rd joint to 200’ from surface x Fill casing while running using fill up line on rig floor. x Use BOL 2000 thread compound. Dope pin end only w/ paint brush. x Centralization: o 1 centralizer every 2 joints to base of conductor Page 22 Milne Point Unit B-40 SB Injector Drilling Procedure 12.8 Watch displacement carefully and avoid surging the hole. Slow down running speed if necessary. 12.9 Slow in and out of slips. 12.10 P/U landing joint and M/U to casing string. Position the casing shoe +/- 10’ from TD. Strap the landing joint prior to the casing job and mark the joint at (1) ft intervals to use as a reference when getting the casing on depth. 12.11 Lower casing to setting depth. Confirm measurements. 12.12 Have slips staged in cellar along with all necessary equipment for the operation. 12.13 Circulate and condition mud through CRT. Reduce YP to < 20 to help ensure success of cement job. Ensure adequate amounts of cold M/U water are available to achieve this. If possible reciprocate casing string while conditioning mud. Page 23 Milne Point Unit B-40 SB Injector Drilling Procedure 13.0 Cement 9-5/8” Surface Casing 13.1 Hold a pre-job safety meeting over the upcoming cement operations. Make room in pits for volume gained during cement job. Ensure adequate cement displacement volume available as well. Ensure mud & water can be delivered to the cementing unit at acceptable rates. x How to handle cement returns at surface. Ensure vac trucks are on standby and ready to assist. x Which pumps will be utilized for displacement, and how fluid will be fed to displacement pump. x Ensure adequate amount of water for mix fluid is heated and available in the water tanks. x Positions and expectations of personnel involved with the cementing operation. i. Extra hands in the pits to strap during the cement job to identify any losses x Review test reports and ensure pump times are acceptable. x Conduct visual inspection of all hard lines and connections used to route slurry to rig floor. 13.2 Document efficiency of all possible displacement pumps prior to cement job. 13.3 Flush through cement pump and treating iron from pump to rig floor to the shakers. This will help ensure any debris left in the cement pump or treating iron will not be pumped downhole. 13.4 R/U cement line (if not already done so). Company Rep to witness loading of the top and bottom plugs to ensure done in correct order. 13.5 Fill surface cement lines with water and pressure test. 13.6 Pump remaining 60 bbls 10.5 ppg tuned spacer. 13.7 Drop bottom plug (flexible bypass plug) – HEC rep to witness. Mix and pump cement per below calculations for the 1st stage, confirm actual cement volumes with cementer after TD is reached. 13.8 Cement volume based on annular volume + 30% open hole excess. Job will consist of lead & tail, TOC brought to stage tool. Page 24 Milne Point Unit B-40 SB Injector Drilling Procedure Estimated 1st Stage Total Cement Volume: Cement Slurry Design (1st Stage Cement Job): 13.8 Attempt to reciprocate casing during cement pumping if hole conditions allow. Watch reciprocation PU and SO weights, if the hole gets “sticky”, cease pipe reciprocation and continue with the cement job. 13.9 After pumping cement, drop top plug (shutoff plug) and displace cement with spud mud out of mud pits, spotting water across the HEC stage cementer. x Ensure volumes pumped and volumes returned are documented and constant communication between mud pits, HEC Rep and HES Cementers during the entire job. 13.10 Ensure rig pump is used to displace cement. To operate the stage tool hydraulically, the plug must be bumped. 13.11 Displacement calculation is in the Stage 1 Table in step 13.7. 80 bbls of tuned spacer to be left on top of stage tool so that the first fluid through the ES cementer is tuned spacer to minimize the risk of flash setting cement 13.12 Monitor returns closely while displacing cement. Adjust pump rate if losses are seen at any point during the job. Be prepared to pump out fluid from cellar. Have black water available to contaminate any cement seen at surface. 13.13 If plug is not bumped at calculated strokes, double check volumes and calculations. Over displace by no more than 50% of shoe track volume, ±4.5 bbls before consulting with Drilling Engineer. Ensure the free fall stage tool opening plug is available if needed. This is the back-up option to open the stage tool if the plugs are not bumped. Lead Slurry Tail Slurry System EconoCem HalCem Density 12.0 lb/gal 15.8 lb/gal Yield 2.35 ft3/sk 1.16 ft3/sk Mix Water 13.92 gal/sk 4.98 gal/sk Page 25 Milne Point Unit B-40 SB Injector Drilling Procedure 13.14 Bump the plug with 500 psi over displacement pressure. Bleed off pressure and confirm floats are holding. If floats do not hold, pressure up string to final circulating pressure and hold until cement is set. Monitor pressure build up and do not let it exceed 500 psi above final circulating pressure if pressure must be held, this is to ensure the stage tool is not prematurely opened. 13.15 Increase pressure to 3300 psi to open circulating ports in stage collar. Slightly higher pressure may be necessary if TOC is above the stage tool. CBU and record any spacer or cement returns to surface and volume pumped to see the returns. Circulate until YP < 20 again in preparation for the 2nd stage of the cement job. 13.16 Be prepared for cement returns to surface. Dump cement returns in the cellar or open the shaker bypass line to the cuttings tank. Have black water available and vac trucks ready to assist. Ensure to flush out any rig components, hard lines and BOP stack that may have come in contact with the cement. Page 26 Milne Point Unit B-40 SB Injector Drilling Procedure Second Stage Surface Cement Job: 13.17 Prepare for the 2nd stage as necessary. Circulate until first stage reaches sufficient compressive strength. Hold pre-job safety meeting. 13.18 HEC representative to witness the loading of the ES cementer closing plug in the cementing head. 13.19 Fill surface lines with water and pressure test. 13.20 Pump remaining 60 bbls 10.5 ppg tuned spacer. 13.21 Mix and pump cmt per below recipe for the 2 nd stage. 13.22 Cement volume based on annular volume + open hole excess (200% for lead and 100% for tail). Job will consist of lead & tail, TOC brought to surface. However cement will continue to be pumped until clean spacer is observed at surface. Estimated 2nd Stage Total Cement Volume: Cement Slurry Design (2nd stage cement job): 13.23 Continue pumping lead until uncontaminated spacer is seen at surface, then switch to tail. 13.24 After pumping cement, drop ES Cementer closing plug and displace cement with spud mud out of mud pits. 13.25 Displacement is in the Stage 2 table in step 13.22. Lead Slurry Tail Slurry System ArcticCem HalCem Density 10.7 lb/gal 15.8 lb/gal Yield 2.88 ft3/sk 1.17 ft3/sk Mixed Water 22.02 gal/sk 5.08 gal/sk Page 27 Milne Point Unit B-40 SB Injector Drilling Procedure 13.26 Monitor returns closely while displacing cement. Adjust pump rate if necessary. Wellhead side outlet valve in cellar can be opened to take returns to cellar if required. Be prepared to pump out fluid from cellar. Have black water available to retard setting of cement. 13.27 Land closing plug on stage collar and pressure up to 1000 – 1500 psi to ensure stage tool closes. Follow instructions of Halliburton personnel. Bleed off pressure and check to ensure stage tool has closed. Slips will be set as per plan to allow full annulus for returns during surface cement job. Set slips 13.28 Make initial cut on 9-5/8” final joint. L/D cut joint. Make final cut on 9-5/8”. Dress off stump. Install 9-5/8” wellhead. If transition nipple is welded on, allow to cool as per schedule. Ensure to report the following on wellez: x Pre flush type, volume (bbls) & weight (ppg) x Cement slurry type, lead or tail, volume & weight x Pump rate while mixing, bpm, note any shutdown during mixing operations with a duration x Pump rate while displacing, note whether displacement by pump truck or mud pumps, weight & type of displacing fluid x Note if casing is reciprocated or rotated during the job x Calculated volume of displacement, actual displacement volume, whether plug bumped & bump pressure, do floats hold x Percent mud returns during job, if intermittent note timing during pumping of job. Final circulating pressure x Note if pre flush or cement returns at surface & volume x Note time cement in place x Note calculated top of cement x Add any comments which would describe the success or problems during the cement job Send final “As-Run” casing tally & casing and cement report to nathan.sperry@hilcorp.com and joseph.lastufka@hilcorp.com This will be included with the EOW documentation that goes to the AOGCC. Page 28 Milne Point Unit B-40 SB Injector Drilling Procedure 14.0 BOP N/U and Test 14.1 N/D the diverter T, knife gate, diverter line & N/U 11” x 13-5/8” 5M casing spool. 14.2 N/U 13-5/8” x 5M BOP as follows: x BOP configuration from top down: 13-5/8” x 5M annular / 13-5/8” x 5M double gate / 13- 5/8” x 5M mud cross / 13-5/8” x 5M single gate x Double gate ram should be dressed with 2-7/8” x 5” VBRs in top cavity,blind ram in bottom cavity. x Single ram can be dressed with 2-7/8” x 5” VBRs x N/U bell nipple, install flowline. x Install (1) manual valve & HCR valve on kill side of mud cross. (Manual valve closest to mud cross). x Install (1) manual valve on choke side of mud cross. Install an HRC outside of the manual valve 14.3 Run 5” BOP test plug 14.4 Test BOP to 250/3000 psi for 5/5 min. Test annular to 250/2500 psi for 5/5 min. x Test 2-7/8” x 5” rams with the 3-1/2” and 5” test joints x Confirm test pressures with PTD x Ensure to monitor side outlet valves and annulus valve pressure gauges to ensure no pressure is trapped underneath test plug x Once BOPE test is complete, send a copy of the test report to town engineer and drilling tech 14.5 R/D BOP test equipment 14.6 Dump and clean mud pits, send spud mud to G&I pad for injection. 14.7 Mix 8.9 ppg FloPro fluid for production hole. 14.8 Set wearbushing in wellhead. 14.9 If needed, rack back as much 5” DP in derrick as possible to be used while drilling the hole section. 14.10 Ensure 6” liners in mud pumps. Page 29 Milne Point Unit B-40 SB Injector Drilling Procedure 15.0 Drill 8-1/2” Hole Section 15.1 M/U 8.5” Cleanout BHA (Milltooth Bit & 1.22° PDM) 15.2 TIH w/ 8-1/2” cleanout BHA to stage tool. Note depth TOC tagged on AM report. Drill out stage tool. 15.3 TIH to TOC above the baffle adapter. Note depth TOC tagged on morning report. 15.4 R/U and test casing to 2500 psi / 30 min. Ensure to record volume / pressure (every ¼ bbl) and plot on FIT graph. AOGCC reg is 50% of burst = 5750 / 2 = ~2875 psi, but max test pressure on the well is 2,500 psi as per AOGCC. Document incremental volume pumped (and subsequent pressure) and volume returned. Ensure rams are used to test casing as per AOGCC Industry Guidance Bulletin 17-001. 15.5 Drill out shoe track and 20’ of new formation. 15.6 CBU and condition mud for FIT. Pump at least one high vis sweep at maximum rate to surface to clean up debris. 15.7 Conduct FIT to 12.0 ppg EMW. Chart test. Ensure test is recorded on same chart as FIT. Document incremental volume pumped (and subsequent pressure) and volume returned. x 12.0 ppg desired to cover shoe strength for expected ECD’s. A 9.9 ppg FIT is the minimum required to drill ahead x 9.8 ppg provides >25 bbls based on 9.5ppg MW, 8.46ppg PP (swab kick at 9.5ppg BHP) 15.8 POOH & LD Cleanout BHA 15.9 P/U 8-1/2” RSS directional BHA. x Ensure BHA components have been inspected previously. x Drift and caliper all components before M/U. Visually verify no debris inside components that cannot be drifted. x Ensure TF offset is measured accurately and entered correctly into the MWD software. x Ensure MWD is R/U and operational. x Have DD run hydraulics calculations on site to ensure optimum nozzle sizing. Hydraulics calculations and recommended TFA is attached below. x Drill string will be 5” 19.5# S-135 DS50 & NC50. x Run a ported float in the production hole section. Schrader Bluff Bit Jetting Guidelines Formation Jetting TFA NB 6 x 14 0.902 OA 6 x 13 0.778 OB 6 x 13 0.778 Email casing test and FIT digital data to AOGCC promptly upon completion of FIT. email: melvin.rixse@alaska.gov Page 30 Milne Point Unit B-40 SB Injector Drilling Procedure 15.10 8-1/2” hole section mud program summary: x Density: Weighting material to be used for the hole section will be calcium carbonate. Additional calcium carbonate will be on location to weight up the active system (1) ppg above highest anticipated MW. x Solids Concentration: It is imperative that the solids concentration be kept low while drilling the production hole section. Keep the shaker screen size optimized and fluid running to near the end of the shakers. It is okay if the shakers run slightly wet to ensure we are running the finest screens possible. x Rheology: Keep viscosifier additions to an absolute minimum (N-VIS). Data suggests excessive viscosifier concentrations can decrease return permeability. Do not pump high vis sweeps, instead use tandem sweeps. Ensure 6 rpm is > 8.5 (hole diameter) for sufficient hole cleaning x Run the centrifuge continuously while drilling the production hole, this will help with solids removal. x Dump and dilute as necessary to keep drilled solids to an absolute minimum. x MD Totco PVT will be used throughout the drilling and completion phase. Remote monitoring stations will be available at the driller’s console, Co Man office, & Toolpusher office. System Type:8.9 – 9.5 ppg FloPro drilling fluid Properties: Interval Density PV YP LSYP Total Solids MBT HPHT Hardness Production 8.9-9.5 15-25 - ALAP 15 - 30 4-6 <10% <8 <11.0 <100 System Formulation: Product- production Size Pkg ppb or (% liquids) Busan 1060 55 gal dm 0.095 FLOTROL 55 lb sx 6 CONQOR 404 WH (8.5 gal/100 bbls)55 gal dm 0.2 FLO-VIS PLUS 25 lb sx 0.7 KCl 50 lb sx 10.7 SMB 50 lb sx 0.45 LOTORQ 55 gal dm 1.0 SAFE-CARB 10 (verify)50 lb sx 10 SAFE-CARB 20 (verify)50 lb sx 10 Soda Ash 50 lb sx 0.5 Page 31 Milne Point Unit B-40 SB Injector Drilling Procedure 15.11 TIH with 8-1/2” directional assembly to bottom 15.12 Displace wellbore to 8.9 ppg FloPro drilling fluid 15.13 Begin drilling 8-1/2” hole section, on-bottom staging technique: x Tag bottom and begin drilling with 100 - 120 rpms at bit. Allow WOB to stabilize at 5-8k. x Slowly begin bringing up rpms, monitoring stick slip and BHA vibrations x If BHA begins to show excessive vibrations / whirl / stick slip, it may be necessary to P/U off bottom and restart on bottom staging technique. If stick slip continues, consider adding 0.5% lubes 15.14 Drill 8-1/2” hole section to section TD per Geologist and Drilling Engineer. x Flow Rate: 350-550 gpm, target min. AV’s 200 ft/min, 385 gpm x RPM: 120+ x Ensure shaker screens are set up to handle this flowrate. Ensure shakers are running slightly wet to maximize solids removal efficiency. Check for holes in screens on every connection. x Keep pipe movement with pumps off to slow speeds, to keep surge and swab pressures low x Take MWD surveys every stand, can be taken more frequently if deemed necessary, ex: concretion deflection x Monitor Torque and Drag with pumps on every stand (confirm frequency with co-man) x Monitor ECD, pump pressure & hookload trends for hole cleaning indication x Surveys can be taken more frequently if deemed necessary. x Good drilling and tripping practices are vital for avoidance of differential sticking. Make every effort to keep the drill string moving whenever possible and avoid stopping with the BHA across the sand for any extended period of time. x Use ADR to stay in section. x Limit maximum instantaneous ROP to < 250 fph. The sands will drill faster than this, but when concretions are hit when drilling this fast, cutter damage can occur. x Target ROP is as fast as we can clean the hole (under 250 fph) without having to backream connections x Watch for higher than expected pressure. MPD will be utilized to monitor pressure build up on connections x 8-1/2” Lateral A/C: x MPU B-25 has a clearance factor of 0.547. B-25 is a Kuparuk injector. Hilcorp plans to run a gyro in B-25 to improve the positional uncertainty. If B-25 fails AC after running the gyro, Hilcorp will either modify the wellplan to steer around B-25 or will secure it with a downhole plug to isolate Kuparuk pressure. x Schrader Bluff OA Concretions: 4-6% Historically 15.15 Reference:Halliburton has a procedure for Schrader OH sidetracks based on lessons learned and best practices. Ensure the DD is referencing their procedure. x Patience is key! Getting kicked off too quickly might have been the cause of failed liner runs on past wells. Page 32 Milne Point Unit B-40 SB Injector Drilling Procedure x If a known fault is coming up, put a slight “kick-off ramp” in wellbore ahead of the fault so we have a nice place to low side. x Attempt to sidetrack low and right in a fast drilling interval where the wellbore is headed up. x Orient TF to low side and dig a trough with high flowrates for the first 30 feet, working string back and forth. Trough for approximately 30 minutes. x Time drill at 4 to 6 feet per hour with high flow rates. Gradually increase ROP as the openhole sidetrack is achieved. 15.16 At TD, CBU (minimum 4X, more if needed) at 200 ft/min AV (385+ gpm) and rotation (120+ rpm). Pump tandem sweeps if needed x Rack back a stand at each bottoms up and reciprocate a full stand in between (while circulating the BU). Keep the pipe moving while pumping. x Monitor BU for increase in cuttings. Cuttings in laterals will come back in waves and not a consistent stream so circulate more if necessary x If seepage losses are seen while drilling, consider reducing MW at TD to 9.0 ppg minimum 15.17 Mix and pump 40 bbl 10 ppb SAPP pill. Line up to a closed loop system and circulate three SAP pills with 50 bbl in between. Displace out SAP pills. Monitor shakers for returns of mud filter cake and calcium carbonate. Circulate the well clean. x Losses during the cleanup of the wellbore are a good indication that the mud filter cake is being removed, including an increase in the loss rate. 15.18 Displace 1.5 OH + Liner volume with viscosified brine. x Proposed brine blend (aiming for an 8 on the 6 RPM reading) - KCl: 7.1bbp for 2% NaCl: 60.9 ppg for 9.4 ppg Lotorq: 1.5% Lube 776: 1.5% Soda Ash: as needed for 9.5pH Busan 1060: 0.42 ppb Flo-Vis Plus: 1.25 ppb Monitor well for loss rate and contact Drilling Engineer and/or Ops Engineer if further discussion needed prior to BROOH. 15.19 BROOH with the drilling assembly to the 9-5/8” casing shoe x Circulate at full drill rate unless losses are seen (350 gpm minimum if on losses) x Rotate at maximum rpm that can be sustained. Page 33 Milne Point Unit B-40 SB Injector Drilling Procedure x Target pulling speed of 5 – 10 min/std (slip to slip time, not including connections), but adjust as hole conditions dictate. x When pulling across any OHST depths, turn pumps off and rotary off to minimize disturbance. Trip back in hole past OHST depth to ensure liner will stay in correct hole section, check with ABI compared to as drilled surveys 15.20 CBU minimum two times at 9-5/8” shoe and clean casing with high vis sweeps. 15.21 Monitor well for flow. Increase mud weight if necessary x Wellbore breathing has been seen on past MPU SB wells. Perform extended flow checks to determine if well is breathing, treat all flow as an influx until proven otherwise x If necessary, increase MW at shoe for any higher than expected pressure seen 15.22 POOH and LD BHA. Rabbit DP on TOH, ensure rabbit diameter is sufficient for future ball drops. Page 34 Milne Point Unit B-40 SB Injector Drilling Procedure 16.0 Run 4-1/2” Injection Liner (Lower Completion) NOTE: If an open hole sidetrack was performed, drop the centralizers on the lowermost 2-3 joints and run them slick. 16.1.Well control preparedness: In the event of an influx of formation fluids while running the 4- 1/2” injection liner with slotted liner, the following well control response procedure will be followed: x With a slotted joint across the BOP: P/U & M/U the 5” safety joint (with 4-1/2” crossover installed on bottom, TIW valve in open position on top, 4-1/2” handling joint above TIW). This joint shall be fully M/U and available prior to running the first joint of 4-1/2” liner. x With 4-1/2” solid joint across BOP: Slack off and position the 4-1/2” solid joint to MU the TIW valve. Shut in ram or annular on 4-1/2” solid joint. Close TIW valve. 16.2. Confirm VBR’s have been tested to cover 4-1/2” and 5” pipe sizes to 250 psi low/3000 psi high. 16.3. R/U 4-1/2” liner running equipment. x Ensure 4-1/2” Hydril 625 x DS-50 crossover is on rig floor and M/U to FOSV. x Ensure the liner has been drifted on the deck prior to running. x Be sure to count the total # of joints on the deck before running. x Keep hole covered while R/U casing tools. x Record OD’s, ID’s, lengths, S/N’s of all components w/ vendor & model info. 16.4. Run 4-1/2” injection liner. x Injection liner will be a combination of slotted and solid joints. Every third joint in the open hole is to be a slotted joint. Confirm with OE. x Use API Modified or “Best O Life 2000 AG”thread compound. Dope pin end only w/ paint brush. Wipe off excess. Thread compound can plug the screens x Utilize a collar clamp until weight is sufficient to keep slips set properly. x Use lift nubbins and stabbing guides for the liner run. x If liner length exceeds surface casing length, ensure centralizers are placed 1/jt for each jt outside of the surface shoe. x Obtain up and down weights of the liner before entering open hole. Record rotating torque at 10 and 20 rpm 4-1/2” 13.5# L-80 H625 Casing OD Minimum Optimum Maximum Operating Torque 4.5” 8,000 ft-lbs 9,600 ft-lbs 12,800 ft-lbs Page 35 Milne Point Unit B-40 SB Injector Drilling Procedure Page 36 Milne Point Unit B-40 SB Injector Drilling Procedure 16.6. Verify with OE whether or not to set liner top packer at less than 70 degree inclination. x AOGCC regulations require a minimum 100’ overlap between the inner and outer strings as per 20 AAC 25.030(d)(6). Ensure hanger/packer will not be set in a 9-5/8” connection. x AOGCC regulations require the packer to be placed within 200’ of the top reservoir perforation (casing shoe) as per 20 AAC 25.412(b). Ensure hanger/packer will not be set in a 9-5/8” connection 16.7. Before picking up Baker SLZXP liner hanger / packer assy, count the # of joints on the pipe deck to make sure it coincides with the pipe tally. 16.8. M/U Baker SLZXP liner top packer to 4-1/2” liner. 16.9. Note: PU, SO, ROT and torque of liner. Run liner in the hole one stand and pump through liner hanger to ensure a clear flow path exists. 16.10. RIH with liner no faster than 30 ft/min – this is to prevent buckling the liner and drill string and weight transfer to get liner to bottom with minimal rotation. Watch displacement carefully and avoid surging the hole or buckling the liner. Slow down running speed if necessary. x Ensure 5” DP/HWDP has been drifted x There is no inner string planned to be run, as opposed to previous wells. The DP should auto fill. Monitor FL and if filling is required due to losses/surging. 16.11. Slow in and out of slips. Ensure accurate slack off data is gathered during RIH. Record shoe depth + SO depth every stand. Record torque value if it becomes necessary to rotate the string to bottom. 16.12. Obtain up and down weights of the liner before entering open hole. Record rotating torque at 10, & 20 RPM. 16.13. If any open hole sidetracks have been drilled, monitor sidetrack depths during run in and ensure shoe enters correct hole. 16.14. TIH deeper than planned setting depth. Last motion of the liner should be up to ensure it is set in tension. 16.15. Rig up to pump down the work string with the rig pumps. 16.16. Break circulation. Begin circulating at ~1 BPM and monitor pump pressures. Do not exceed 1,600 psi while circulating.Pusher tool is set at 2,100 psi with 5% shear screws but it should be discussed before exceeding 1,600 psi. Note all losses. Confirm all pressures with Baker 16.17. Prior to setting the hanger and packer, double check all pipe tallies and record amount of drill pipe left on location. Ensure all numbers coincide with proper setting depth of liner hanger. Page 37 Milne Point Unit B-40 SB Injector Drilling Procedure 16.18. Shut down pumps. Drop setting ball down the workstring and pump slowly (1-2 BPM). Slow pump before the ball seats. Do not allow ball to slam into ball seat. 16.19. Continue pressuring up to 2,700 psi to set the SLZXP liner hanger/packer. Hold for 5 minutes. Slack off 20K lbs on the SZXP liner hanger/packer to ensure the HRDE setting tool is in compression for release from the SLZXP liner hanger/packer. Continue pressuring up 4,500 psi to release the HRDE running tool. 16.20. Bleed DP pressure to 0 psi. If necessary (and per vendor procedure), pick up to expose rotating dog sub and set down 50K without pulling sleeve packoff. Pick back up without pulling sleeve packoff, begin rotating at 10-20 RPM and set down 50K again. 16.21. PU to neutral weight, close BOP and test annulus to 1,500 psi for 10 minutes charted. 16.22. Bleed off pressure and open BOPE. Pickup to verify that the HRD setting tool has released. If packer did not test, rotating dog sub can be used to set packer. If running tool cannot be hydraulically released, apply LH torque to mechanically release the setting tool. 16.23. PU pulling running tool free of the packer and displace with at max rate to wash the liner top. Pump sweeps as needed. 16.24. POOH. LD and inspect running tools. If setting of liner hanger/packer proceeded as planned, LD DP on the TOOH. Note: Once running tool is LD, swap to the completion AFE. Page 38 Milne Point Unit B-40 SB Injector Drilling Procedure 17.0 Run 3-1/2” Tubing (Upper Completion) 17.1 Notify the AOGCC at least 24 hours in advance of the IA pressure test after running the completion as per 20 AAC 25.412 (e). 17.2 M/U injection assembly and RIH to setting depth. TIH no faster than 90 ft/min. x Ensure wear bushing is pulled. x Ensure 3-½” EUE 8RD x NC-50 crossover is on rig floor and M/U to FOSV. x Ensure all tubing has been drifted in the pipe shed prior to running. x Be sure to count the total # of joints in the pipe shed before running. x Keep hole covered while R/U casing tools. x Record OD’s, ID’s, lengths, S/N’s of all components w/ vendor & model info. x Monitor displacement from wellbore while RIH. 3-1/2” 9.3# L-80 EUE 8RD Casing OD Minimum Optimum Maximum Operating Torque 3.5” 2,350 ft-lbs 3,130 ft-lbs 3,910 ft-lbs 3-½” Upper Completion Running Order x 3-½” Baker Ported Bullet Nose seal (stung into the tie back receptacle) x 3 joints (minimum, more as needed) 3-½” 9.3#/ft, L-80 EUE 8RD tubing x 3-½” “X” nipple at TBD (ensure X-nipple and not an XN) x 3-½” 9.3#/ft, L-80 EUE 8RD tubing x 3-½” SGM-FS XDPG Gauge at TBD x 3-½” 9.3#/ft, L-80 EUE 8RD space out pups x 3-1/2” sliding sleeve with jet pump x 1 joint 3-½” 9.3#/ft, L-80 EUE 8RD tubing x Tubing hanger with 3-1/2” EUE 8RD pin down 17.3 Locate and no-go out the seal assembly. Close annular and test to 400 psi to confirm seals engaged. 17.4 Bleed pressure and open annular. Space out the completion (+/- 1’ to 2’ above No-Go). Place all space out pups below the first full joint of the completion. Page 39 Milne Point Unit B-40 SB Injector Drilling Procedure 17.5 Makeup the tubing hanger and landing joint. 17.6 RIH. Close annular and test to 400 – 500 psi to confirm seals are engaged. Bleed pressure down to 250 psi. PU until ports in seal assembly exposed. 17.7 Reverse circulate the well with brine and 1% corrosion inhibitor. 17.8 Freeze protect the tubing and IA to ~3000’ MD with ±210 bbl of diesel. 17.9 Land hanger. RILDs and test hanger. 17.10 Continue pressurizing the annulus to 3500 psi and test for 30 charted minutes. i. Note this test must be witnessed by the AOGCC representative. 17.11 Set BPV, ensure new body seals are installed each time. ND BOPE and NU adapter flange and tree. 17.12 Install test dart. Test tree to 5000 psi. 17.13 Pull test dart. Bullhead tubing freeze protect. 17.14 Secure the tree and cellar. 18.0 RDMO 18. RDMO Doyon 14 Page 40 Milne Point Unit B-40 SB Injector Drilling Procedure 19.0 Post-Rig Work Operations-Convert well on surface with hard line to a jet pump producer. 19.1 MU surface lines from power fluid header to existing IA. a. Pressure test lines at existing power fluid header pressure (3,600 psi) 19.2 Rig up hardline to neighboring wells production header and test header. Pressure test to 3600 psi. 19.3 MIRU SL and Little Red Pumping Unit. PT lines to 3,000 psi. 19.4 Shift Sliding sleeve open 19.5 Set 12B jet pump 19.6 RDMO SL/FB- After 30 days of production 19.7 MIRU SL and Little Red Pumping Unit. PT lines to 3,000 psi. 19.8 FB circ IA with corrosion inhibited brine down to SS with a FP cap down to 2000’ on IA 19.9 Pull Jet Pump 19.10 Shift SS closed 19.11 MIT-IA test to 2000 psi 19.12 POI 19.13 After 5 days of stabilized injection MIT-IA to 2000 psi (Charted and state witnessed) Page 41 Milne Point Unit B-40 SB Injector Drilling Procedure 20.0 Doyon 14 Diverter Schematic Page 42 Milne Point Unit B-40 SB Injector Drilling Procedure 21.0 Doyon 14 BOP Schematic 2-7/8” x 5” VBR Page 43 Milne Point Unit B-40 SB Injector Drilling Procedure 22.0 Wellhead Schematic Page 44 Milne Point Unit B-40 SB Injector Drilling Procedure 23.0 Days Vs Depth Page 45 Milne Point Unit B-40 SB Injector Drilling Procedure 24.0 Formation Tops & Information MPU B-40 Formations TVD (ft) TVDss (ft) MD (ft) Form. Pressure (psi) EMW (ppg) BPRF 1827 1770 2123 804 8.46 SV3 2117 2060 2547 931 8.46 UG4 2839 2782 3603 1,249 8.46 UG MB 4123 4066 5472 1,814 8.46 UG MC 4319 4262 5887 1,900 8.46 SB NA 4335 4278 5931 1,907 8.46 SB NB 4357 4300 5997 1,917 8.46 SB NC 4369 4312 6036 1,922 8.46 SB ND 4389 4332 6107 1,931 8.46 SB NE 4433 4376 6325 1,950 8.46 SB OA target 4454 4397 6563 1,959 8.46 Page 46 Milne Point Unit B-40 SB Injector Drilling Procedure B-pad Data Sheet Formation Description Page 47 Milne Point Unit B-40 SB Injector Drilling Procedure 25.0 Anticipated Drilling Hazards 12-1/4” Hole Section: Lost Circulation Ensure adequate amounts of LCM are available. Monitor fluid volumes to detect any early signs of lost circulation. For minor seepage losses, consider adding small amounts of calcium carbonate. Gas Hydrates Gas hyrates have not been seen on the pad. However, be prepared for them. Remember that hydrate gas behave differently from a gas sand. Additional fluid density will not prevent influx of gas hydrates, but can help control the breakout at surface. Once a gas hydrate has been disturbed the gas will come out of the hole. Drill through the hydrate section as quickly as possible while minimizing gas belching. Minimize circulation time while drilling through the hydrate zone. Excessive circulation will accelerate formation thawing which can increase the amount of hydrates released into the wellbore. Keep the mud circulation temperature as cold as possible. Weigh mud with both a pressurized and non-pressurized mud scale. The non-pressurized scale will reflect the actual mud cut weight. Isolate/dump contaminated fluid to remove hydrates from the system. Hole Cleaning: Maintain rheology of mud system. Sweep hole with high viscosity sweeps as necessary. Optimize solids control equipment to maintain density, sand content, and reduce the waste stream. Monitor ECDs to determine if additional circulation time is necessary. In a highly deviated wellbore, pipe rotation is critical for effective hole cleaning. Rotate at maximum RPMs when CBU, and keep pipe moving to avoid washing out a particular section of the hole. Ensure to clean the hole with rotation after slide intervals. Do not out drill our ability to clean the hole. Anti-Collison: There are a number of wells in close proximity. Take directional surveys every stand, take additional surveys if necessary. Continuously monitor proximity to offset wellbores and record any close approaches on AM report. Discuss offset wellbores with production foreman and consider shutting in adjacent wells if necessary. Monitor drilling parameters for signs of collision with another well. Well specific A/C: x There are no wells with a CF < 1.0 Wellbore stability (Permafrost, running sands and gravel, conductor broaching): Washouts in the permafrost can be severe if the string is left circulating across it for extended periods of time. Keep mud as cool as possible by taking on cold water and diluting often. High TOH and RIH speeds can aggravate fragile shale/coal formations due to the pressure variations between surge and swab. Bring the pumps on slowly after connections. Monitor conductor for any signs of broaching. Maintain mud parameters and increase MW to combat running sands and gravel formations. H2S: Treat every hole section as though it has the potential for H2S. No H2S events have been documented on drill wells on this pad. Page 48 Milne Point Unit B-40 SB Injector Drilling Procedure 1. The AOGCC will be notified within 24 hours if H2S is encountered in excess of 20 ppm during drilling operations. 2. The rig will have fully functioning automatic H2S detection equipment meeting the requirements of 20 AAC 25.066. 3. In the event H2S is detected, wellwork will be suspended and personnel evacuated until a detailed mitigation procedure can be developed. Page 49 Milne Point Unit B-40 SB Injector Drilling Procedure 8-1/2” Hole Section: Hole Cleaning: Maintain rheology of mud system. Sweep hole with low-vis water sweeps. Ensure shakers are set up appropriately to maximize solids removal efficiency. Run centrifuge continuously. Monitor ECDs to determine if additional circulation time is necessary. In a highly deviated wellbore, pipe rotation is critical for effective hole cleaning. Rotate at maximum RPMs when CBU, and keep pipe moving to avoid washing out a particular section of the wellbore. Ensure to clean the hole with rotation after slide intervals. Do not out drill our ability to clean the hole. Maintain circulation rate of > 300 gpm Lost Circulation: Ensure adequate amounts of LCM are available. Monitor fluid volumes to detect any early signs of lost circulation. For minor seepage losses, consider adding small amounts of calcium carbonate. Faulting: There is at least (1) fault that will be crossed while drilling the well. There could be others and the throw of these faults is not well understood at this point in time. When a known fault is coming up, consider putting a “ramp” in the wellbore to aid in kicking off (low siding) later. Once a fault is crossed, we’ll need to either drill up or down to get a look at the LWD log and determine the throw and then replan the wellbore. H2S: Treat every hole section as though it has the potential for H2S. No H2S events have been documented on drill wells on this pad. 1. The AOGCC will be notified within 24 hours if H2S is encountered in excess of 20 ppm during drilling operations. 2. The rig will have fully functioning automatic H2S detection equipment meeting the requirements of 20 AAC 25.066. 3. In the event H2S is detected, wellwork will be suspended and personnel evacuated until a detailed mitigation procedure can be developed. Abnormal Pressures and Temperatures: Reservoir pressures are expected to be normal. Abnormal (offset injection) pressure has been seen on M- Pad. Utilize MPD to mitigate any abnormal pressure seen. Anti-Collision Take directional surveys every stand, take additional surveys if necessary. Continuously monitor drilling parameters for signs of magnetic interference with another well. Reference A/C report in directional plan. Well specific AC: x MPU B-25 has a clearance factor of 0.547. B-25 is a Kuparuk injector. Hilcorp plans to run a gyro in B-25 to improve the positional uncertainty. If B-25 fails AC after running the gyro, Hilcorp will either modify the wellplan to steer around B-25 or will secure it with a downhole plug to isolate Kuparuk pressure. Page 50 Milne Point Unit B-40 SB Injector Drilling Procedure 26.0 Doyon 14 Layout Page 51 Milne Point Unit B-40 SB Injector Drilling Procedure 27.0 FIT Procedure Formation Integrity Test (FIT) and Leak-Off Test (LOT) Procedures Procedure for FIT: 1. Drill 20' of new formation below the casing shoe (this does not include rat hole below the shoe). 2. Circulate the hole to establish a uniform mud density throughout the system. P/U into the shoe. 3. Close the blowout preventer (ram or annular). 4. Pump down the drill stem at 1/4 to 1/2 bpm. 5. On a graph with the recent casing test already shown, plot the fluid pumped (volume or strokes) vs. drill pipe pressure until appropriate surface pressure is achieved for FIT at shoe. 6. Shut down at required surface pressure. Hold for a minimum 10 minutes or until the pressure stabilizes. Record time vs. pressure in 1-minute intervals. 7. Bleed the pressure off and record the fluid volume recovered. The pre-determined surface pressure for each formation integrity test is based on achieving an EMW at least 1.0 ppg higher than the estimated reservoir pressure, and allowing for an appropriate amount of kick tolerance in case well control measures are required. Where required, the LOT is performed in the same fashion as the formation integrity test. Instead of stopping at a pre-determined point, surface pressure is increased until the formation begins to take fluid; at this point the pressure will continue to rise, but at a slower rate. The system is shut in and pressure monitored as with an FIT. Ensure that casing test and subsequent FIT tests are recorded on the same chart. Document incremental volume pumped and returned during test. Page 52 Milne Point Unit B-40 SB Injector Drilling Procedure 28.0 Doyon 14 Choke Manifold Schematic Page 53 Milne Point Unit B-40 SB Injector Drilling Procedure 29.0 Casing Design Page 54 Milne Point Unit B-40 SB Injector Drilling Procedure 30.0 8-1/2” Hole Section MASP DLB Page 55 Milne Point Unit B-40 SB Injector Drilling Procedure 31.0 Spider Plot (NAD 27) (Governmental Sections) Page 56 Milne Point Unit B-40 SB Injector Drilling Procedure 32.0 Surface Plat (As-Staked) (NAD 27) 6WDQGDUG3URSRVDO5HSRUW -DQXDU\ 3ODQ038%ZS +LOFRUS$ODVND//& 0LOQH3RLQW 03W%3DG 3ODQ038% 038% 0 75 0 15 0 0 22 5 0 30 0 0 37 5 0 45 0 0 True Vertical Depth (1500 usft/in) -2 2 5 0 - 1 5 0 0 - 7 5 0 0 7 5 0 1 5 0 0 2 2 5 0 3 0 0 0 3 7 5 0 4 5 0 0 5 2 5 0 6 0 0 0 6 7 5 0 7 5 0 0 8 2 5 0 9 0 0 0 9 7 5 0 1 0 5 0 0 1 1 2 5 0 1 2 0 0 0 Ve r t i c a l S e c t i o n a t 2 8 1 . 0 0 ° ( 1 5 0 0 u s f t / i n ) MP U B - 4 0 w p 0 9 c p 1 MP U B - 4 0 w p 0 9 c p 2 MP U B - 4 0 w p 0 9 H e e l t g t MP U B - 4 0 w p 0 7 T o e MP U B - 4 0 w p 0 9 c p 3 MP U B - 4 0 a r o u n d B - 2 5 @ 3 5 0 0 M D MP U B - 4 0 w p 1 0 T o e 9 5 / 8 " x 1 2 1 / 4 " 4 1 / 2 " x 8 1 / 2 " 5 00 1 0 0 0 1 5 0 0 2 0 0 0 2 5 0 0 3 0 0 0 3 5 0 0 4 0 0 0 4 5 0 0 5 0 0 0 55 00 6000 6500 7000 7500 8000 8500 90 00 9500 10000 10500 11000 11500 12000 12500 13000 13369 MP U B - 4 0 w p 1 0 St a r t D i r 3 º / 1 0 0 ' : 3 5 0 ' M D , 3 5 0 ' T V D St a r t D i r 4 . 3 º / 1 0 0 ' : 7 5 0 ' M D , 7 4 7 . 0 8 ' T V D En d D i r : 1 5 6 0 . 6 5 ' M D , 1 4 4 2 . 3 6 ' T V D Fa u l t 1 D T E ( T h r o w 5 0 ' ) Start Dir 4.2º/100' : 3600' M D, 2837.23'TV D End Dir : 3742.39' M D, 2936.09' TV D Start Dir 4.2º/100' : 5023.41' M D, 3837.1'TVD End Dir : 6452.99' M D, 4446.54' TVD Start Dir 2.5º/100' : 6602.99' M D, 4457'TVD End Dir : 6817.07' M D, 4466.01' TVD Start Dir 2.5º/100' : 8278.27' M D, 4487'TVD End Dir : 8693.41' M D, 4475.2' TVD Fault 2 D TE (Throw 50') Start Dir 2.5º/100' : 9230.75' M D, 4437'TVD End Dir : 9796.37' M D, 4420.77' TVD Fault 3 DT W (Throw 25') Start Dir 2.5º/100' : 10598.73' M D, 4432'TV D End Dir : 11391.79' M D, 4440.87' TV D Total Depth : 13369.33' M D, 4457' TV D BP R F SV 3 UG 4 UG 3 LA 3 LA 2 UG M B UG M C SB N A SB N B SB N C SB N D SB N E SB N F SB O A t a r g e t Hi l c o r p A l a s k a , L L C Ca l c u l a t i o n M e t h o d : Mi n i m u m C u r v a t u r e Er r o r S y s t e m : IS C W S A Sc a n M e t h o d : C l o s e s t A p p r o a c h 3 D Er r o r S u r f a c e : E l l i p s o i d S e p a r a t i o n Wa r n i n g M e t h o d : E r r o r R a t i o WE L L D E T A I L S : P l a n : M P U B - 4 0 23 . 3 0 +N / - S + E / - W No r t h i n g Ea s t i n g La t i t u d e Lo n g i t u d e 0. 0 0 0. 0 0 60 2 3 7 3 0 . 1 7 0 57 1 8 2 7 . 0 8 0 7 0 ° 2 8 ' 3 0 . 4 3 8 5 N 1 4 9 ° 2 4 ' 4 7 . 7 6 1 4 W SU R V E Y P R O G R A M Da t e : 2 0 2 2 - 0 7 - 1 4 T 0 0 : 0 0 : 0 0 V a l i d a t e d : Y e s V e r s i o n : De p t h F r o m D e p t h T o S u r v e y / P l a n T o o l 33 . 7 0 1 0 0 0 . 0 0 M P U B - 4 0 w p 1 0 ( M P U B - 4 0 ) G Y D _ Q u e s t G W D 10 0 0 . 0 0 6 7 0 0 . 0 0 M P U B - 4 0 w p 1 0 ( M P U B - 4 0 ) 3 _ M W D + I F R 2 + M S + S a g 67 0 0 . 0 0 1 3 3 6 9 . 3 3 M P U B - 4 0 w p 1 0 ( M P U B - 4 0 ) 3 _ M W D + I F R 2 + M S + S a g FO R M A T I O N T O P D E T A I L S TV D P a t h T V D s s P a t h M D P a t h F o r m a t i o n 18 2 7 . 0 0 1 7 7 0 . 0 0 2 1 2 3 . 0 0 B P R F 21 1 7 . 0 0 2 0 6 0 . 0 0 2 5 4 7 . 0 0 S V 3 28 3 9 . 0 0 2 7 8 2 . 0 0 3 6 0 2 . 5 9 U G 4 32 2 3 . 0 0 3 1 6 6 . 0 0 4 1 5 0 . 3 0 U G 3 38 8 7 . 0 0 3 8 3 0 . 0 0 5 0 9 5 . 2 6 L A 3 39 0 9 . 0 0 3 8 5 2 . 0 0 5 1 2 7 . 5 6 L A 2 41 2 3 . 0 0 4 0 6 6 . 0 0 5 4 7 1 . 6 1 U G M B 41 6 9 . 0 0 4 1 1 2 . 0 0 5 5 5 6 . 1 7 U G M C 43 1 9 . 0 0 4 2 6 2 . 0 0 5 8 8 7 . 3 4 S B N A 43 3 5 . 0 0 4 2 7 8 . 0 0 5 9 3 1 . 3 3 S B N B 43 5 7 . 0 0 4 3 0 0 . 0 0 5 9 9 6 . 8 1 S B N C 43 6 9 . 0 0 4 3 1 2 . 0 0 6 0 3 5 . 6 4 S B N D 43 8 9 . 0 0 4 3 3 2 . 0 0 6 1 0 7 . 0 5 S B N E 44 3 3 . 0 0 4 3 7 6 . 0 0 6 3 2 5 . 0 5 S B N F 44 5 4 . 2 1 4 3 9 7 . 2 1 6 5 6 3 . 0 0 S B O A t a r g e t RE F E R E N C E I N F O R M A T I O N Co - o r d i n a t e ( N / E ) R e f e r e n c e : We l l P l a n : M P U B - 4 0 , T r u e N o r t h Ve r t i c a l ( T V D ) R e f e r e n c e : MP U B - 4 0 A s b u i l t R K B @ 5 7 . 0 0 u s f t Me a s u r e d D e p t h R e f e r e n c e : MP U B - 4 0 A s b u i l t R K B @ 5 7 . 0 0 u s f t Ca l c u l a t i o n M e t h o d : Mi n i m u m C u r v a t u r e Pr o j e c t : Mi l n e P o i n t Si t e : M P t B P a d We l l : Pl a n : M P U B - 4 0 We l l b o r e : MP U B - 4 0 De s i g n : MP U B - 4 0 w p 1 0 CA S I N G D E T A I L S TV D T V D S S M D S i z e Na m e 44 6 2 . 5 5 4 4 0 5 . 5 5 6 7 0 0 . 0 0 9 - 5 / 8 9 5 / 8 " x 1 2 1 / 4 " 44 5 7 . 0 0 4 4 0 0 . 0 0 1 3 3 6 9 . 3 3 4 - 1 / 2 4 1 / 2 " x 8 1 / 2 " SE C T I O N D E T A I L S Se c M D I n c A z i T V D + N / - S + E / - W D l e g T F a c e V S e c t T a r g e t A n n o t a t i o n 1 3 3 . 7 0 0 . 0 0 0 . 0 0 3 3 . 7 0 0 . 0 0 0 . 0 0 0 . 0 0 0 . 0 0 0 . 0 0 2 3 5 0 . 0 0 0 . 0 0 0 . 0 0 3 5 0 . 0 0 0 . 0 0 0 . 0 0 0 . 0 0 0 . 0 0 0 . 0 0 S t a r t D i r 3 º / 1 0 0 ' : 3 5 0 ' M D , 3 5 0 ' T V D 3 7 5 0 . 0 0 1 2 . 0 0 2 3 0 . 0 0 7 4 7 . 0 8 - 2 6 . 8 3 - 3 1 . 9 7 3 . 0 0 2 3 0 . 0 0 2 6 . 2 6 S t a r t D i r 4 . 3 º / 1 0 0 ' : 7 5 0 ' M D , 7 4 7 . 0 8 ' T V D 4 1 5 6 0 . 6 5 4 6 . 8 4 2 3 2 . 3 9 1 4 4 2 . 3 6 - 2 6 8 . 9 4 - 3 4 0 . 3 5 4 . 3 0 3 . 0 6 2 8 2 . 7 8 E n d D i r : 1 5 6 0 . 6 5 ' M D , 1 4 4 2 . 3 6 ' T V D 5 3 6 0 0 . 0 0 4 6 . 8 4 2 3 2 . 3 9 2 8 3 7 . 2 3 - 1 1 7 6 . 7 7 - 1 5 1 8 . 9 7 0 . 0 0 0 . 0 0 1 2 6 6 . 5 3 M P U B - 4 0 a r o u n d B - 2 5 @ 3 5 0 0 M D S t a r t D i r 4 . 2 º / 1 0 0 ' : 3 6 0 0 ' M D , 2 8 3 7 . 2 3 ' T VD 6 3 7 4 2 . 3 9 4 5 . 3 0 2 4 0 . 4 2 2 9 3 6 . 0 9 - 1 2 3 3 . 4 9 - 1 6 0 4 . 2 0 4 . 2 0 1 0 7 . 7 0 1 3 3 9 . 3 7 E n d D i r : 3 7 4 2 . 3 9 ' M D , 2 9 3 6 . 0 9 ' T V D 7 5 0 2 3 . 4 1 4 5 . 3 0 2 4 0 . 4 2 3 8 3 7 . 1 0 - 1 6 8 2 . 9 8 - 2 3 9 6 . 1 3 0 . 0 0 0 . 0 0 2 0 3 0 . 9 8 S t a r t D i r 4 . 2 º / 1 0 0 ' : 5 0 2 3 . 4 1 ' M D , 3 8 3 7 . 1 ' T V D 8 6 4 5 2 . 9 9 8 6 . 0 0 2 9 1 . 0 0 4 4 4 6 . 5 4 - 1 6 7 7 . 7 6 - 3 6 1 7 . 5 9 4 . 2 0 6 2 . 8 0 3 2 3 0 . 9 9 E n d D i r : 6 4 5 2 . 9 9 ' M D , 4 4 4 6 . 5 4 ' T V D 9 6 6 0 2 . 9 9 8 6 . 0 0 2 9 1 . 0 0 4 4 5 7 . 0 0 - 1 6 2 4 . 1 4 - 3 7 5 7 . 2 8 0 . 0 0 0 . 0 0 3 3 7 8 . 3 5 M P U B - 4 0 w p 0 9 H e e l t g t S t a r t D i r 2 . 5 º / 1 0 0 ' : 6 6 0 2 . 9 9 ' M D , 4 4 5 7 ' T V D 10 6 8 1 7 . 0 7 8 9 . 1 8 2 9 5 . 3 1 4 4 6 6 . 0 1 - 1 5 4 0 . 0 5 - 3 9 5 3 . 8 7 2 . 5 0 5 3 . 7 0 3 5 8 7 . 3 7 E n d D i r : 6 8 1 7 . 0 7 ' M D , 4 4 6 6 . 0 1 ' T V D 1 1 8 2 7 8 . 2 7 8 9 . 1 8 2 9 5 . 3 1 4 4 8 7 . 0 0 - 9 1 5 . 3 9 - 5 2 7 4 . 6 6 0 . 0 0 0 . 0 0 5 0 0 3 . 0 8 M P U B - 4 0 w p 0 9 c p 1 S t a r t D i r 2 . 5 º / 1 0 0 ' : 8 2 7 8 . 2 7 ' M D , 4 4 8 7 ' T V D 12 8 6 9 3 . 4 1 9 4 . 0 8 3 0 4 . 4 7 4 4 7 5 . 2 0 - 7 0 8 . 9 2 - 5 6 3 3 . 9 6 2 . 5 0 6 1 . 7 7 5 3 9 5 . 1 8 E n d D i r : 8 6 9 3 . 4 1 ' M D , 4 4 7 5 . 2 ' T V D 13 9 2 3 0 . 7 5 9 4 . 0 8 3 0 4 . 4 7 4 4 3 7 . 0 0 - 4 0 5 . 5 9 - 6 0 7 5 . 8 5 0 . 0 0 0 . 0 0 5 8 8 6 . 8 3 M P U B - 4 0 w p 0 9 c p 2 S t a r t D i r 2 . 5 º / 1 0 0 ' : 9 2 3 0 . 7 5 ' M D , 4 4 3 7 ' T V D 14 9 7 9 6 . 3 7 8 9 . 2 0 2 9 1 . 1 9 4 4 2 0 . 7 7 - 1 4 2 . 4 1 - 6 5 7 4 . 6 2 2 . 5 0 - 1 0 9 . 8 9 6 4 2 6 . 6 6 E n d D i r : 9 7 9 6 . 3 7 ' M D , 4 4 2 0 . 7 7 ' T V D 15 1 0 5 9 8 . 7 3 8 9 . 2 0 2 9 1 . 1 9 4 4 3 2 . 0 0 1 4 7 . 5 2 - 7 3 2 2 . 6 9 0 . 0 0 0 . 0 0 7 2 1 6 . 3 0 M P U B - 4 0 w p 0 9 c p 3 S t a r t D i r 2 . 5 º / 1 0 0 ' : 1 0 5 9 8 . 7 3 ' M D , 4 4 3 2 ' T V D 16 1 1 3 9 1 . 7 9 8 9 . 5 3 3 1 1 . 0 1 4 4 4 0 . 8 7 5 5 5 . 0 7 - 7 9 9 8 . 3 4 2 . 5 0 8 9 . 1 5 7 9 5 7 . 3 0 E n d D i r : 1 1 3 9 1 . 7 9 ' M D , 4 4 4 0 . 8 7 ' T V D 1 7 1 3 3 6 9 . 3 3 8 9 . 5 3 3 1 1 . 0 1 4 4 5 7 . 0 0 1 8 5 2 . 6 8 - 9 4 9 0 . 5 4 0 . 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                             (O O L S V H  6 H S D U D W L R Q 3 D V V    03 %       0 3 %       0 3 %                                       &O H D U D Q F H  ) D F W R U 3 D V V    03 %       0 3 %       0 3 %                                       &H Q W U H  ' L V W D Q F H 3 D V V    03 %       0 3 %       0 3 %                                       (O O L S V H  6 H S D U D W L R Q 3 D V V    03 %       0 3 %       0 3 %                                       &O H D U D Q F H  ) D F W R U 3 D V V    03 %       0 3 %       0 3 %                                             &H Q W U H  ' L V W D Q F H 3 D V V    03 %       0 3 %       0 3 %                                             (O O L S V H  6 H S D U D W L R Q 3 D V V      - D Q X D U \             &2 0 3 $ 6 6 3D J H    R I   0L O Q H  3 R L Q W +L O F R U S  $ O D V N D   / / & $Q W L F R O O L V L R Q  5 H S R U W  I R U  3 O D Q   0 3 8  %       0 3 8  %     Z S   &R P S D U L V R Q  : H O O  1 D P H    : H O O E R U H  1 D P H    ' H V L J Q #0 H D V X U H G 'H S W K X V I W 0L Q L P X P 'L V W D Q F H X V I W (O O L S V H 6H S D U D W L R Q X V I W #0 H D V X U H G 'H S W K XV I W &O H D U D Q F H )D F W R U 6F D Q  5 D G L X V  L V  8 Q O L P L W H G     & O H D U D Q F H  ) D F W R U  F X W R I I  L V  8 Q O L P L W H G   0 D [  ( O O L S V H  6 H S D U D W L R Q  L V  8 Q O L P L W H G 6L W H  1 D P H 6F D Q  5 D Q J H          W R           X V I W   0 H D V X U H G  ' H S W K    &O R V H V W  $ S S U R D F K   '  3 U R [ L P L W \  6 F D Q  R Q  & X U U H Q W  6 X U Y H \  ' D W D  + L J K VL G H  5 H I H U H Q F H 5H I H U H Q F H  ' H V L J Q    0  3 W  %  3 D G    3 O D Q   0 3 8  %       0 3 8  %       0 3 8 %     Z S   0H D V X U H G 'H S W K X V I W 6X P P D U \  % D V H G  R Q  0L Q L P X P 6H S D U D W L R Q  : D U Q L Q J 03 %       0 3 %       0 3 %                                            &O H D U D Q F H  ) D F W R U 3 D V V    03 %       0 3 %       0 3 %                                          &H Q W U H  ' L V W D Q F H 3 D V V    03 %       0 3 %       0 3 %                                           (O O L S V H  6 H S D U D W L R Q 3 D V V    03 %       0 3 %       0 3 %                                           &O H D U D Q F H  ) D F W R U 3 D V V    03 8  %    L    0 3 8  %       0 3 8  %                                            (O O L S V H  6 H S D U D W L R Q 3 D V V    03 8  %    L    0 3 8  %       0 3 8  %                                            &O H D U D Q F H  ) D F W R U 3 D V V    03 8  %       0 3 8  %       0 3 8  %                                             &H Q W U H  ' L V W D Q F H 3 D V V    03 8  %       0 3 8  %       0 3 8  %                                             (O O L S V H  6 H S D U D W L R Q 3 D V V    03 8  %       0 3 8  %       0 3 8  %                                             &O H D U D Q F H  ) D F W R U 3 D V V    03 8  %       0 3 8  %     3 %     0 3 8  %     3 %                                          &H Q W U H  ' L V W D Q F H 3 D V V    03 8  %       0 3 8  %     3 %     0 3 8  %     3 %                                          (O O L S V H  6 H S D U D W L R Q 3 D V V    03 8  %       0 3 8  %     3 %     0 3 8  %     3 %                                          &O H D U D Q F H  ) D F W R U 3 D V V    03 8  %       0 3 8  %       0 3 8  %                                          &H Q W U H  ' L V W D Q F H 3 D V V    03 8  %       0 3 8  %       0 3 8  %                                          (O O L S V H  6 H S D U D W L R Q 3 D V V    03 8  %       0 3 8  %       0 3 8  %                                          &O H D U D Q F H  ) D F W R U 3 D V V    03 8  %       0 3 8  %       0 3 8  %                                  &H Q W U H  ' L V W D Q F H 3 D V V    03 8  %       0 3 8  %       0 3 8  %                                     (O O L S V H  6 H S D U D W L R Q 3 D V V    03 8  %       0 3 8  %       0 3 8  %                                     &O H D U D Q F H  ) D F W R U 3 D V V    3O D Q   0 3 8  %    L    0 3 8  %       0 3 8  %     Z S                                   &H Q W U H  ' L V W D Q F H 3 D V V    3O D Q   0 3 8  %    L    0 3 8  %       0 3 8  %     Z S                                   (O O L S V H  6 H S D U D W L R Q 3 D V V    3O D Q   0 3 8  %    L    0 3 8  %       0 3 8  %     Z S                                   &O H D U D Q F H  ) D F W R U 3 D V V    3O D Q   0 3 8  %       0 3 8  %       0 3 8  %     Z S                                        &O H D U D Q F H  ) D F W R U 3 D V V    3O D Q   0 3 8  %       0 3 8  %       0 3 8  %     Z S                                        (O O L S V H  6 H S D U D W L R Q 3 D V V    3O D Q   0 3 8  %       0 3 8  %       0 3 8  %     Z S                                        &H Q W U H  ' L V W D Q F H 3 D V V    5L J   0 3 8  %       0 3 8  %       0 3 8  %                                         &H Q W U H  ' L V W D Q F H 3 D V V    5L J   0 3 8  %       0 3 8  %       0 3 8  %                                         (O O L S V H  6 H S D U D W L R Q 3 D V V    5L J   0 3 8  %       0 3 8  %       0 3 8  %                                         &O H D U D Q F H  ) D F W R U 3 D V V    5L J   0 3 8  %       0 3 8  %       0 3 8  %     Z S                                        (O O L S V H  6 H S D U D W L R Q 3 D V V    5L J   0 3 8  %       0 3 8  %       0 3 8  %     Z S                                        &O H D U D Q F H  ) D F W R U 3 D V V      - D Q X D U \             &2 0 3 $ 6 6 3D J H    R I   0L O Q H  3 R L Q W +L O F R U S  $ O D V N D   / / & $Q W L F R O O L V L R Q  5 H S R U W  I R U  3 O D Q   0 3 8  %       0 3 8  %     Z S   &R P S D U L V R Q  : H O O  1 D P H    : H O O E R U H  1 D P H    ' H V L J Q #0 H D V X U H G 'H S W K X V I W 0L Q L P X P 'L V W D Q F H X V I W (O O L S V H 6H S D U D W L R Q X V I W #0 H D V X U H G 'H S W K XV I W &O H D U D Q F H )D F W R U 6F D Q  5 D G L X V  L V  8 Q O L P L W H G     & O H D U D Q F H  ) D F W R U  F X W R I I  L V  8 Q O L P L W H G   0 D [  ( O O L S V H  6 H S D U D W L R Q  L V  8 Q O L P L W H G 6L W H  1 D P H 6F D Q  5 D Q J H          W R           X V I W   0 H D V X U H G  ' H S W K    &O R V H V W  $ S S U R D F K   '  3 U R [ L P L W \  6 F D Q  R Q  & X U U H Q W  6 X U Y H \  ' D W D  + L J K VL G H  5 H I H U H Q F H 5H I H U H Q F H  ' H V L J Q    0  3 W  %  3 D G    3 O D Q   0 3 8  %       0 3 8  %       0 3 8 %     Z S   0H D V X U H G 'H S W K X V I W 6X P P D U \  % D V H G  R Q  0L Q L P X P 6H S D U D W L R Q  : D U Q L Q J 0 3 W  &  3 D G 0 3 W  (  3 D G 03 8  (       0 3 8  (       0 3 8  (                                            &H Q W U H  ' L V W D Q F H 3 D V V    03 8  (       0 3 8  (       0 3 8  (                                            (O O L S V H  6 H S D U D W L R Q 3 D V V    03 8  (       0 3 8  (       0 3 8  (                                            &O H D U D Q F H  ) D F W R U 3 D V V    03 8  (       0 3 8  (     3 %     0 3 8  (     3 %                                         &H Q W U H  ' L V W D Q F H 3 D V V    03 8  (       0 3 8  (     3 %     0 3 8  (     3 %                                         (O O L S V H  6 H S D U D W L R Q 3 D V V    03 8  (       0 3 8  (     3 %     0 3 8  (     3 %                                         &O H D U D Q F H  ) D F W R U 3 D V V    6X U Y H \  W R R O  S U R J U D P )U R P X V I W 7R X V I W 6X U Y H \  3 O D Q 6 X U Y H \  7 R R O             0 3 8  %     Z S   * < ' B 4 X H V W  * : '                0 3 8  %     Z S    B 0 : '  , ) 5   0 6  6 D J                 0 3 8  %     Z S    B 0 : '  , ) 5   0 6  6 D J (O O L S V H  H U U R U  W H U P V  D U H  F R U U H O D W H G  D F U R V V  V X U Y H \  W R R O  W L H  R Q  S R LQ W V  6H S D U D W L R Q  L V  W K H  D F W X D O  G L V W D Q F H  E H W Z H H Q  H O O L S V R L G V  &D O F X O D W H G  H O O L S V H V  L Q F R U S R U D W H  V X U I D F H  H U U R U V  &O H D U D Q F H  ) D F W R U   ' L V W D Q F H  % H W Z H H Q  3 U R I L O H V    ' L V W D Q F H  % H W Z H H Q 3 U R I L O H V    ( O O L S V H  6 H S D U D W L R Q  'L V W D Q F H  % H W Z H H Q  F H Q W U H V  L V  W K H  V W U D L J K W  O L Q H  G L V W D Q F H  E H W Z H H Q  ZH O O E R U H  F H Q W U H V  $O O  V W D W L R Q  F R R U G L Q D W H V  Z H U H  F D O F X O D W H G  X V L Q J  W K H  0 L Q L P X P  & X U Y D WX U H  P H W K R G    - D Q X D U \             &2 0 3 $ 6 6 3D J H    R I   0. 0 0 1. 0 0 2. 0 0 3. 0 0 4. 0 0 Separation Factor 0 3 7 5 7 5 0 1 1 2 5 1 5 0 0 1 8 7 5 2 2 5 0 2 6 2 5 3 0 0 0 3 3 7 5 3 7 5 0 4 1 2 5 4 5 0 0 4 8 7 5 5 2 5 0 5 6 2 5 6 0 0 0 6 3 7 5 6 7 5 0 7 1 2 5 Me a s u r e d D e p t h ( 7 5 0 u s f t / i n ) MP U B - 3 9 w p 1 0 MP B - 2 3 MP U B - 3 7 MP B - 2 5 MP B - 0 9 MP B - 0 7 No - G o Z o n e - S t o p D r i l l i n g Co l l i s i o n A v o i d a n c e R e q u i r e d Co l l i s i o n R i s k P r o c e d u r e s R e q . NO E R R O R S WE L L D E T A I L S : P l a n : M P U B - 4 0 N A D 1 9 2 7 ( N A D C O N C O N U S ) Al a s k a Z o n e 0 4 23 . 3 0 +N / - S + E / - W N o r t h i n g E a s t i n g La t i t u d e Lo n g i t u d e 0. 0 0 0. 0 0 60 2 3 7 3 0 . 1 7 0 57 1 8 2 7 . 0 8 0 7 0 ° 2 8 ' 3 0 . 4 3 8 5 N 14 9 ° 2 4 ' 4 7 . 7 6 1 4 W RE F E R E N C E I N F O R M A T I O N Co - o r d i n a t e ( N / E ) R e f e r e n c e : We l l P l a n : M P U B - 4 0 , T r u e N o r t h Ve r t i c a l ( T V D ) R e f e r e n c e : MP U B - 4 0 A s b u i l t R K B @ 5 7 . 0 0 u s f t Me a s u r e d D e p t h R e f e r e n c e : MP U B - 4 0 A s b u i l t R K B @ 5 7 . 0 0 u s f t Ca l c u l a t i o n M e t h o d : M i n i m u m C u r v a t u r e SU R V E Y P R O G R A M Da t e : 2 0 2 2 - 0 7 - 1 4 T 0 0 : 0 0 : 0 0 V a l i d a t e d : Y e s V e r s i o n : De p t h F r o m D e p t h T o S u r v e y / P l a n To o l 33 . 7 0 1 0 0 0 . 0 0 M P U B - 4 0 w p 1 0 ( M P U B - 4 0 ) G Y D _ Q u e s t G W D 10 0 0 . 0 0 6 7 0 0 . 0 0 M P U B - 4 0 w p1 0 ( M P U B - 4 0 ) 3 _ M W D + I F R 2 + M S + S a g 67 0 0 . 0 0 1 3 3 6 9 . 3 3 M P U B - 4 0 w p1 0 ( M P U B - 4 0 ) 3 _ M W D + I F R 2 + M S + S a g 0. 0 0 30 . 0 0 60 . 0 0 90 . 0 0 12 0 . 0 0 15 0 . 0 0 18 0 . 0 0 Centre to Centre Separation (60.00 usft/in) 0 3 7 5 7 5 0 1 1 2 5 1 5 0 0 1 8 7 5 2 2 5 0 2 6 2 5 3 0 0 0 3 3 7 5 3 7 5 0 4 1 2 5 4 5 0 0 4 8 7 5 5 2 5 0 5 6 2 5 6 0 0 0 6 3 7 5 6 7 5 0 7 1 2 5 Me a s u r e d D e p t h ( 7 5 0 u s f t / i n ) MP U B - 3 8 w p 1 1 MP B - 1 1 MP U B - 3 6 MP B - 0 8 MP B - 0 7 NO G L O B A L F I L T E R : U s i n g u s e r d e f i n e d s e l e c t i o n & f i l t e r i n g c r i t e r i a 33 . 7 0 T o 1 3 3 6 9 . 3 3 Pr o j e c t : M i l n e P o i n t Si t e : M P t B P a d We l l : P l a n : M P U B - 4 0 We l l b o r e : M P U B - 4 0 Pl a n : M P U B - 4 0 w p 1 0 La d d e r / S . F . P l o t s 1 o f 2 CA S I N G D E T A I L S TV D T V D S S M D S i z e N a m e 44 6 2 . 5 5 4 4 0 5 . 5 5 6 7 0 0 . 0 0 9 - 5 / 8 9 5 / 8 " x 1 2 1 / 4 " 44 5 7 . 0 0 4 4 0 0 . 0 0 1 3 3 6 9 . 3 3 4 - 1 / 2 4 1 / 2 " x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ƒ            1      ƒ            : 'D W X P  + H L J K W    0 3 8  %     $ V  E X L O W  5 . %  #       X V I W 6F D Q  5 D Q J H             W R            X V I W   0 H D V X U H G  ' H S W K  *H R G H W L F  6 F D O H  ) D F W R U  $ S S O L H G 9H U V L R Q             % X L O G      ( 6F D Q  5 D G L X V  L V  8 Q O L P L W H G     & O H D U D Q F H  ) D F W R U  F X W R I I  L V  8 Q O L P L W H G   0 D [  ( O O L S V H  6 H S D U D W L R Q  L V  8 Q O L P L W H G */ 2 % $ /  ) , / 7 ( 5  $ 3 3 / , ( '   $ O O  Z H O O S D W K V  Z L W K L Q                R I  U HI H U H Q F H 6F D Q  7 \ S H  6F D Q  7 \ S H      0L O Q H  3 R L Q W +L O F R U S  $ O D V N D   / / & $Q W L F R O O L V L R Q  5 H S R U W  I R U  3 O D Q   0 3 8  %       0 3 8  %     Z S   &R P S D U L V R Q  : H O O  1 D P H    : H O O E R U H  1 D P H    ' H V L J Q #0 H D V X U H G 'H S W K X V I W 0L Q L P X P 'L V W D Q F H X V I W (O O L S V H 6H S D U D W L R Q X V I W #0 H D V X U H G 'H S W K XV I W &O H D U D Q F H )D F W R U 6F D Q  5 D G L X V  L V  8 Q O L P L W H G     & O H D U D Q F H  ) D F W R U  F X W R I I  L V  8 Q O L P L W H G   0 D [  ( O O L S V H  6 H S D U D W L R Q  L V  8 Q O L P L W H G 6L W H  1 D P H 6F D Q  5 D Q J H             W R            X V I W   0 H D V X U H G  ' H S W K    &O R V H V W  $ S S U R D F K   '  3 U R [ L P L W \  6 F D Q  R Q  & X U U H Q W  6 X U Y H \  ' D W D  + L J K VL G H  5 H I H U H Q F H 5H I H U H Q F H  ' H V L J Q    0  3 W  %  3 D G    3 O D Q   0 3 8  %       0 3 8  %       0 3 8 %     Z S   0H D V X U H G 'H S W K X V I W 6X P P D U \  % D V H G  R Q  0L Q L P X P 6H S D U D W L R Q  : D U Q L Q J 0 3 W  %  3 D G 03 %       0 3 %       0 3 %                                            (O O L S V H  6 H S D U D W L R Q 3 D V V    03 %       0 3 %       0 3 %                                            &O H D U D Q F H  ) D F W R U 3 D V V    03 %       0 3 %       0 3 %                                              &O H D U D Q F H  ) D F W R U 3 D V V    03 %       0 3 %       0 3 %                                            &O H D U D Q F H  ) D F W R U 3 D V V    03 %       0 3 %       0 3 %                                            (O O L S V H  6 H S D U D W L R Q 3 D V V    03 %       0 3 %       0 3 %                                            &H Q W U H  ' L V W D Q F H 3 D V V    03 %       0 3 %       0 3 %                                     &H Q W U H  ' L V W D Q F H 3D V V    03 %       0 3 %       0 3 %                                        &O H D U D Q F H  ) D F W R U )$ , /    03 8  %       0 3 8  %       0 3 8  %                                                (O O L S V H  6 H S D U D W L R Q 3 D V V    03 8  %       0 3 8  %       0 3 8  %                                                &O H D U D Q F H  ) D F W R U 3 D V V    03 8  %       0 3 8  %     3 %     0 3 8  %     3 %                                              (O O L S V H  6 H S D U D W L R Q 3 D V V    03 8  %       0 3 8  %     3 %     0 3 8  %     3 %                                              &O H D U D Q F H  ) D F W R U 3 D V V    3O D Q   0 3 8  %    L    0 3 8  %       0 3 8  %     Z S                                               &H Q W U H  ' L V W D Q F H 3 D V V    3O D Q   0 3 8  %    L    0 3 8  %       0 3 8  %     Z S                                                 &O H D U D Q F H  ) D F W R U 3 D V V    3O D Q   0 3 8  %       0 3 8  %       0 3 8  %     Z S                                             (O O L S V H  6 H S D U D W L R Q 3 D V V    3O D Q   0 3 8  %       0 3 8  %       0 3 8  %     Z S                                             &H Q W U H  ' L V W D Q F H 3 D V V    3O D Q   0 3 8  %       0 3 8  %       0 3 8  %     Z S                                             &O H D U D Q F H  ) D F W R U 3 D V V    0 3 W  &  3 D G 03 &       0 3 &       0 3 &                                                  &O H D U D Q F H  ) D F W R U 3 D V V    0 3 W  (  3 D G 03 8  (       0 3 8  (       0 3 8  (                                              &H Q W U H  ' L V W D Q F H 3 D V V    03 8  (       0 3 8  (       0 3 8  (                                              (O O L S V H  6 H S D U D W L R Q 3 D V V    03 8  (       0 3 8  (       0 3 8  (                                              &O H D U D Q F H  ) D F W R U 3 D V V    03 8  (       0 3 8  (     3 %     0 3 8  (     3 %                                          &H Q W U H  ' L V W D Q F H 3 D V V    03 8  (       0 3 8  (     3 %     0 3 8  (     3 %                                          (O O L S V H  6 H S D U D W L R Q 3 D V V    03 8  (       0 3 8  (     3 %     0 3 8  (     3 %                                          &O H D U D Q F H  ) D F W R U 3 D V V      - D Q X D U \             &2 0 3 $ 6 6 3D J H    R I   0L O Q H  3 R L Q W +L O F R U S  $ O D V N D   / / & $Q W L F R O O L V L R Q  5 H S R U W  I R U  3 O D Q   0 3 8  %       0 3 8  %     Z S   &R P S D U L V R Q  : H O O  1 D P H    : H O O E R U H  1 D P H    ' H V L J Q #0 H D V X U H G 'H S W K X V I W 0L Q L P X P 'L V W D Q F H X V I W (O O L S V H 6H S D U D W L R Q X V I W #0 H D V X U H G 'H S W K XV I W &O H D U D Q F H )D F W R U 6F D Q  5 D G L X V  L V  8 Q O L P L W H G     & O H D U D Q F H  ) D F W R U  F X W R I I  L V  8 Q O L P L W H G   0 D [  ( O O L S V H  6 H S D U D W L R Q  L V  8 Q O L P L W H G 6L W H  1 D P H 6F D Q  5 D Q J H             W R            X V I W   0 H D V X U H G  ' H S W K    &O R V H V W  $ S S U R D F K   '  3 U R [ L P L W \  6 F D Q  R Q  & X U U H Q W  6 X U Y H \  ' D W D  + L J K VL G H  5 H I H U H Q F H 5H I H U H Q F H  ' H V L J Q    0  3 W  %  3 D G    3 O D Q   0 3 8  %       0 3 8  %       0 3 8 %     Z S   0H D V X U H G 'H S W K X V I W 6X P P D U \  % D V H G  R Q  0L Q L P X P 6H S D U D W L R Q  : D U Q L Q J 6X U Y H \  W R R O  S U R J U D P )U R P X V I W 7R X V I W 6X U Y H \  3 O D Q 6 X U Y H \  7 R R O             0 3 8  %     Z S   * < ' B 4 X H V W  * : '                0 3 8  %     Z S    B 0 : '  , ) 5   0 6  6 D J                 0 3 8  %     Z S    B 0 : '  , ) 5   0 6  6 D J (O O L S V H  H U U R U  W H U P V  D U H  F R U U H O D W H G  D F U R V V  V X U Y H \  W R R O  W L H  R Q  S R LQ W V  6H S D U D W L R Q  L V  W K H  D F W X D O  G L V W D Q F H  E H W Z H H Q  H O O L S V R L G V  &D O F X O D W H G  H O O L S V H V  L Q F R U S R U D W H  V X U I D F H  H U U R U V  &O H D U D Q F H  ) D F W R U   ' L V W D Q F H  % H W Z H H Q  3 U R I L O H V    ' L V W D Q F H  % H W Z H H Q 3 U R I L O H V    ( O O L S V H  6 H S D U D W L R Q  'L V W D Q F H  % H W Z H H Q  F H Q W U H V  L V  W K H  V W U D L J K W  O L Q H  G L V W D Q F H  E H W Z H H Q  ZH O O E R U H  F H Q W U H V  $O O  V W D W L R Q  F R R U G L Q D W H V  Z H U H  F D O F X O D W H G  X V L Q J  W K H  0 L Q L P X P  & X U Y D WX U H  P H W K R G    - D Q X D U \             &2 0 3 $ 6 6 3D J H    R I   0. 0 0 1. 0 0 2. 0 0 3. 0 0 4. 0 0 Separation Factor 67 5 0 7 1 2 5 7 5 0 0 7 8 7 5 8 2 5 0 8 6 2 5 9 0 0 0 9 3 7 5 9 7 5 0 1 0 1 2 5 1 0 5 0 0 1 0 8 7 5 1 12 5 0 1 1 6 2 5 1 2 0 0 0 1 2 3 7 5 1 2 7 5 0 1 31 2 5 1 3 5 0 0 Me a s u r e d D e p t h ( 7 5 0 u s f t / i n ) MP U B - 3 9 w p 1 0 MP B - 2 3 MP B - 2 5 MP B - 0 9 MP B - 0 7 MP U E - 3 7 No - G o Z o n e - S t o p D r i l l i n g Co l l i s i o n A v o i d a n c e R e q u i r e d Co l l i s i o n R i s k P r o c e d u r e s R e q . WE L L D E T A I L S : P l a n : M P U B - 4 0 N A D 1 9 2 7 ( N A D C O N C O N U S ) Al a s k a Z o n e 0 4 23 . 3 0 +N / - S + E / - W N o r t h i n g E a s t i n g La t i t u d e Lo n g i t u d e 0. 0 0 0. 0 0 60 2 3 7 3 0 . 1 7 0 57 1 8 2 7 . 0 8 0 70 ° 2 8 ' 3 0 . 4 3 8 5 N 14 9 ° 2 4 ' 4 7 . 7 6 1 4 W RE F E R E N C E I N F O R M A T I O N Co - o r d i n a t e ( N / E ) R e f e r e n c e : We l l P l a n : M P U B - 4 0 , T r u e N o r t h Ve r t i c a l ( T V D ) R e f e r e n c e : MP U B - 4 0 A s b u i l t R K B @ 5 7 . 0 0 u s f t Me a s u r e d D e p t h R e f e r e n c e : MP U B - 4 0 A s b u i l t R K B @ 5 7 . 0 0 u s f t Ca l c u l a t i o n M e t h o d : M i n i m u m C u r v a t u r e SU R V E Y P R O G R A M Da t e : 2 0 2 2 - 0 7 - 1 4 T 0 0 : 0 0 : 0 0 V a l i d a t e d : Y e s V e r s i o n : De p t h F r o m D e p t h T o S u r v e y / P l a n To o l 33 . 7 0 1 0 0 0 . 0 0 M P U B - 4 0 w p 1 0 ( M P U B - 4 0 ) G Y D _ Q u e s t G W D 10 0 0 . 0 0 6 7 0 0 . 0 0 M P U B - 4 0 w p1 0 ( M P U B - 4 0 ) 3 _ M W D + I F R 2 + M S + S a g 67 0 0 . 0 0 1 3 3 6 9 . 3 3 M P U B - 4 0 w p1 0 ( M P U B - 4 0 ) 3 _ M W D + I F R 2 + M S + S a g 0. 0 0 30 . 0 0 60 . 0 0 90 . 0 0 12 0 . 0 0 15 0 . 0 0 18 0 . 0 0 Centre to Centre Separation (60.00 usft/in) 67 5 0 7 1 2 5 7 5 0 0 7 8 7 5 8 2 5 0 8 6 2 5 9 0 0 0 9 3 7 5 9 7 5 0 1 0 1 2 5 1 0 5 0 0 1 0 8 7 5 1 12 5 0 1 1 6 2 5 1 2 0 0 0 1 2 3 7 5 1 2 7 5 0 1 31 2 5 1 3 5 0 0 Me a s u r e d D e p t h ( 7 5 0 u s f t / i n ) MP B - 2 5 NO G L O B A L F I L T E R : U s i n g u s e r d e f i n e d s e l e c t i o n & f i l t e r i n g c r i t e r i a 33 . 7 0 T o 1 3 3 6 9 . 3 3 Pr o j e c t : M i l n e P o i n t Si t e : M P t B P a d We l l : P l a n : M P U B - 4 0 We l l b o r e : M P U B - 4 0 Pl a n : M P U B - 4 0 w p 1 0 La d d e r / S . F . P l o t s 2 o f 2 CA S I N G D E T A I L S TV D T V D S S M D S i z e N a m e 44 6 2 . 5 5 4 4 0 5 . 5 5 6 7 0 0 . 0 0 9 - 5 / 8 9 5 / 8 " x 1 2 1 / 4 " 44 5 7 . 0 0 4 4 0 0 . 0 0 1 3 3 6 9 . 3 3 4 - 1 / 2 4 1 / 2 " x 8 1 / 2 " Revised 7/2022 TRANSMITTAL LETTER CHECKLIST WELL NAME:______________________________________ PTD:_____________________________________________ ___ Development ___ Service ___ Exploratory ___ Stratigraphic Test ___ Non-Conventional FIELD:__________________________POOL:____________________________________ Check Box for Appropriate Letter / Paragraphs to be Included in Transmittal Letter CHECK OPTIONS TEXT FOR APPROVAL LETTER MULTI LATERAL (If last two digits in API number are between 60-69) The permit is for a new wellbore segment of existing well Permit Number _____________, API Number 50-______________________. Production from or injection into this wellbore must be reported under the original API Number stated above. Spacing Exception The permit is approved subject to full compliance with 20 AAC 25.055. Approval to produce or inject is contingent upon issuance of a conservation order approving a spacing exception. The Operator assumes the liability of any protest to the spacing exception that may occur. Dry Ditch Sample All dry ditch sample sets submitted to the AOGCC must be in nogreater than 30-foot sample intervals from below the permafrost or from where samples are first caught and 10-foot sample intervals through target zones. Non- Conventional Well Please note the following special condition of this permit: Production or production testing of coal bed methane is not allowed for this well until after the Operator has designed and implemented a water-well testing program to provide baseline data on water quality and quantity. The Operator must contact the AOGCC to obtain advance approval of such a water-well testing program. Well Logging Requirements Regulation 20 AAC 25.071(a) authorizes the AOGCC to specify types of well logs to be run. In addition to the well logging program proposed by the Operator in the attached application, the following well logs are also required for this well: Per Statute AS 31.05.030(d)(2)(B) and Regulation 20 AAC 25.071, composite curves for all well logs run must be submitted to the AOGCC within 90 days after completion, suspension, or abandonment of this well, or within 90 days of acquisition of the data, whichever occurs first. X MPU B-40 222-009 Schrader Bluff Oil Milne Point Unit X X EC K L I S T pa n y Hi l c o r p A l a s k a , L L C We l l N a m e : MI L N E P T U N I T B - 4 0 In i t i a l C l a s s / T y p e SE R / P E N D Ge o A r e a 89 0 Un i t 11 3 2 8 On / O f f S h o r e On Pr o g r a m SE R Fi e l d & P o o l We l l b o r e s An n u l a r D i MI L N E P O I N T , S C H R A D E R B L F F O I L - 5 2 5 1 4 0 NA Pe r m i t f e e a t t a c h e d Ye s Le a s e n u m b e r a p p r o p r i a t e Ye s Un i q u e w e l l n a m e a n d n u m b e r Ye s We l l l o c a t e d i n a d e f i n e d p o o l Ye s We l l l o c a t e d p r o p e r d i s t a n c e f r o m d r i l l i n g u n i t b o u n d a r y Ye s We l l l o c a t e d p r o p e r d i s t a n c e f r o m o t h e r w e l l s Ye s Su f f i c i e n t a c r e a g e a v a i l a b l e i n d r i l l i n g u n i t Ye s If d e v i a t e d , i s w e l l b o r e p l a t i n c l u d e d Ye s Op e r a t o r o n l y a f f e c t e d p a r t y Ye s 0 Op e r a t o r h a s a p p r o p r i a t e b o n d i n f o r c e Ye s Pe r m i t c a n b e i s s u e d w i t h o u t c o n s e r v a t i o n o r d e r Ye s 2 Pe r m i t c a n b e i s s u e d w i t h o u t a d m i n i s t r a t i v e a p p r o v a l Ye s 3 Ca n p e r m i t b e a p p r o v e d b e f o r e 1 5 - d a y w a i t Ye s A r e a I n j e c t i o n O r d e r N o . 1 0 - B a p p l i e s . 4 We l l l o c a t e d w i t h i n a r e a a n d s t r a t a a u t h o r i z e d b y I n j e c t i o n O r d e r # ( p u t I O # i n c o m m e n t s ) ( F o r Ye s 5 Al l w e l l s w i t h i n 1 / 4 m i l e a r e a o f r e v i e w i d e n t i f i e d ( F o r s e r v i c e w e l l o n l y ) Ye s W e l l b e p r e - p r o d u c e d f o r 3 0 d a y s o r l e s s . 6 Pr e - p r o d u c e d i n j e c t o r : d u r a t i o n o f p r e - p r o d u c t i o n l e s s t h a n 3 m o n t h s ( F o r s e r v i c e w e l l o n l y ) NA 7 No n c o n v e n . g a s c o n f o r m s t o A S 3 1 . 0 5 . 0 3 0 ( j . 1 . A ) , ( j . 2 . A - D ) Ye s 2 0 " 1 2 9 . 5 # X - 5 2 d r i v e n t o 1 0 6 ' 8 Co n d u c t o r s t r i n g p r o v i d e d Ye s 9 - 5 / 8 " s u r f a c e c a s i n g f u l l y c e m e n t e d w i t h s h o e s e t i n S B r e s e r v o i r 9 Su r f a c e c a s i n g p r o t e c t s a l l k n o w n U S D W s Ye s F u l l y c e m e n t e d w i t h s t a g e c o l l a r a n d e x c e s s c e m e n t 0 CM T v o l a d e q u a t e t o c i r c u l a t e o n c o n d u c t o r & s u r f c s g Ye s CM T v o l a d e q u a t e t o t i e - i n l o n g s t r i n g t o s u r f c s g Ye s F u l l y c e m e n t e d f r o m s u r f a c e t o r e s e r v o i r 2 CM T w i l l c o v e r a l l k n o w n p r o d u c t i v e h o r i z o n s Ye s 9 - 5 / 8 " 4 7 # f r o m s u r f a c e t o B O P F , 9 - 5 / 8 " 4 0 # L - 8 0 f r o m B O P F t o r e s e r v o i r 3 Ca s i n g d e s i g n s a d e q u a t e f o r C , T , B & p e r m a f r o s t Ye s D o y o n 1 4 h a s a d q u a t e t a n k a g e a n d g o o d t r u c k i n g s u p p o r t 4 Ad e q u a t e t a n k a g e o r r e s e r v e p i t NA T h i s i s a g r a s s r o o t s w e l l 5 If a r e - d r i l l , h a s a 1 0 - 4 0 3 f o r a b a n d o n m e n t b e e n a p p r o v e d Ye s H a l l i b u r t o n c o l l i s i o n s c a n r e c o g n i z e d o f f s e t w e l l B - 2 5 t o b e a r i s k . M a n a g e m e n t f o r s h u t i n t o b e s u b m i t t e d . 6 Ad e q u a t e w e l l b o r e s e p a r a t i o n p r o p o s e d Ye s 1 6 " d i v e r t e r 7 If d i v e r t e r r e q u i r e d , d o e s i t m e e t r e g u l a t i o n s Ye s A l l f l u i d s o v e r b a l a n c e d t o p o r e p r e s s u r e 8 Dr i l l i n g f l u i d p r o g r a m s c h e m a t i c & e q u i p l i s t a d e q u a t e Ye s 1 a n n u l a r , 3 r a m , 1 f l o w c r o s s 9 BO P E s , d o t h e y m e e t r e g u l a t i o n Ye s 5 M , 1 3 - 5 / 8 " s t a c k t e s t e d t o 3 0 0 0 p s i 0 BO P E p r e s s r a t i n g a p p r o p r i a t e ; t e s t t o ( p u t p s i g i n c o m m e n t s ) Ye s Ch o k e m a n i f o l d c o m p l i e s w / A P I R P - 5 3 ( M a y 8 4 ) Ye s 2 Wo r k w i l l o c c u r w i t h o u t o p e r a t i o n s h u t d o w n No M P U B p a d h a s n o t H 2 S e v e n t s 3 Is p r e s e n c e o f H 2 S g a s p r o b a b l e Ye s 4 Me c h a n i c a l c o n d i t i o n o f w e l l s w i t h i n A O R v e r i f i e d ( F o r s e r v i c e w e l l o n l y ) No H 2 S m e a s u r e s r e q u i r e d : B - 0 3 & B - 0 6 m e a s u r e d 4 2 t o 4 3 p p m H 2 S i n 2 0 0 9 . R i g h a s H 2 S s e n s o r s a n d a l a r m 5 Pe r m i t c a n b e i s s u e d w / o h y d r o g e n s u l f i d e m e a s u r e s Ye s 6 Da t a p r e s e n t e d o n p o t e n t i a l o v e r p r e s s u r e z o n e s NA 7 Se i s m i c a n a l y s i s o f s h a l l o w g a s z o n e s NA 8 Se a b e d c o n d i t i o n s u r v e y ( i f o f f - s h o r e ) NA 9 Co n t a c t n a m e / p h o n e f o r w e e k l y p r o g r e s s r e p o r t s [ e x p l o r a t o r y o n l y ] Da t e : En g i n e e r i n g Co m m i s s i o n e r : Da t e Pu b l i c Co m m i s s i o n e r Da t e JL C 2 / 1 7 / 2 0 2 3 n Di g i t a l l y s i g n e d b y G r e g o r y W i l s o n Da t e : 2 0 2 3 . 0 2 . 1 7 0 9 : 0 4 : 2 4 - 0 9 ' 0 0 '