Department of Commerce, Community, and Economic Development
Alaska Oil and Gas Conservation Commission
Loading...
HomeMy WebLinkAbout2018-04-06_318-154STATE OF ALASKA
ALASKA OIL AND GAS CONSERVATION COMMISSION
APPLICATION FOR SUNDRY APPROVALS
20 AAC 25.280
RECEDED
APR 0 6 2018
1. Type of Request: Abandon ❑ Plug Perforations ❑ Fracture Stimulate 21 Repair Well ❑ Ope on shul0own ❑
Suspend ❑ Perforate ❑ Other Stimulate ❑ Pull Tubing ❑ Chan 13gr/a(l�ay-�p
Plug for Rednll ❑ Perforate New Pool ❑ Reenter Susp Well ❑ Alter Casing ❑ Other ❑
2. Operator Name: BP Exploration (Alaska), Inc
4. Current Well Class:
Exploratory ❑ Development 0
5. Permit to Drill Number: 217-006
3. Address: P.O. Box 196612 Anchorage, AK
99519-6612Slretigrephic
❑ Service ❑
e. API Number: 50.029-23043-60-00
7. If perforating:
What Regulation or Conservation Order governs well spacing in this pool?
8. Well Name and Number:
Will planned perforations requirea spacing exception? Yes ❑ No ❑
PBU L-11BL1
9. Property Designation (Lease Number):
10. Field/Pools:
ADL 028239
PRUDHOE BAY. PRUDHOE OIL
11, PRESENT WELL CONDITION SUMMARY
Total Depth MD (8):
Total Depth TVD(ft): Effective Depth MD: Effective Depth TVD:
MPSP (psi): Plugs (MD): Junk (MD):
12780
6686 12761 6686
None None
Casing
Length Size MD TVD Burst Collapse
Structural
Conductor
78 20" 31-109 31-109 1490 470
Surface
3265 7-5/8" 30-3295 30-2622 6890 / 8180 4790/5120
Intermediate
Production
8703 5-1 /2" x 3-1/2" 27-8730 27-6506 7000 / 10160 4990/10530
Liner
4108 2-3/8" 8662 - 12770 6439-6686 11200 11780
Perforation Depth MD (ft):
Perforation Depth TVD (ft):
Tubing Size:
Tubing Grade:
Tubing MD (ft):
1
11748- 12753
6659 - 6685
3-1/2" 9.2#
25-8481
Packers and SSSV Type: No Packer
Packers and SSSV MD (ft) and TVD (ft): No Packer
No SSSV installed
No SSSV Installed
12. Attachments: Proposal Summary 10 Wellbore Schematic M
13, Well Class after proposed work:
Detailed Operations Program ❑ BOP Sketch ❑
Exploratory ❑ Slratigraphic ❑ Development 0 Service ❑
14. Estimated Date for Commencing Operations: May 15, 2018
15. Well Status after proposed work:
Oil ® WINJ ❑ WDSPL ❑ Suspended ❑
16. Verbal Approval: Date:
GAS ❑ WAG ❑ GSTOR ❑ SPLUG ❑
Commission Representative:
GINJ ❑ Op Shutdown ❑ Abandoned ❑
17. 1 hereby certify that the foregoing is true and the procedure approved herein will not Contact Name: Wages, David
be deviated from without prior written approval.
Contact Email: David.WagesMbp.com
Authorized Name: Wages, David
Contact Phone: 907.564.5669
Authorized Title: Well piterventions Engineer
// ,./
Authorized Signature: V� Date: � j �}(
COMMISSION USE ONLY
Conditions of approval: Notify Commission so that a representative may witness Sundry Number: S13— '!�r q
Plug Integrity ❑ BOP Test ❑ Mechanical Integrity Test ❑ Location Clearance ❑
Other:
Post Initial Injection MIT Req'd? Yes ❑ No ❑
Spacing Exception Required? Yes ❑ No ❑ Subsequent Form Required:
APPROVED BYTHE
Approved by: COMMISSIONER COMMISSION Date:
ORIGINAL
Submit Form and
Form 10-003 Revised 04/2017 Approved application is valid for 12 months from the date of approval. Attachments in Duplicate
STATE OF ALASKA
ALASKA OIL AND GAS CONSERVATION COMMISSION
AFFIDAVIT OF NOTICE OF OPERATIONS
Before me, the undersigned authority, on this day personally appeared DAJ C who
being duly sworn states:
1. My name is David Wages. I am 18 years of age or older and 1 have personal knowledge of the
facts stated in this affidavit.
2. lam employed as an Engineer by BP Exploration (Alaska) Inc. (`BPXA") and I am familiar with
the Application for Sundry Approvals to stimulate the L -1 18L1 Well (the "Well") by hydraulic
fracturing as defined in 20 AAC 25.283(m).
3. Pursuant to 20 AAC 25.283(1), BPXA prepared a Notice of Operations regarding the Well, a true
copy of which is attached to this Affidavit as Attachment 1 ("Notice of Operations").
4. On April 5'", 2018, the Notice of Operations was sent to all owners, landowners, surface owners
and operators within a one-half mile radius of the current or proposed wellbore trajectory of the
Well. The Notice of Operations included:
a. A statement that upon request a complete copy of the Application for Sundry Approvals
is available from BPXA;
b. BPXA's contact information.
Signed this 51h day of April, 2018.
STATE OF ALASKA
THIRD JUDICIAL DISTRICT
-6 '�
(Signature)
Subscribel and sworn to or affirmedA G
before me at hyi4Ca Y� {� on the 7—Aday of ` i , 20
E
isska
ic ftft
dheimion Expires: 3.20.20
Sjg�ature of Officer'
Mql r /I
Title of Offider
L-11861.1 Fracture Stimulation
Intervention Engineer
Tyson Shriver (907) 564-4133
Intervention Engineer
David Wages (907) 564-5669
Objective
Perform a ball drop three stage fracture stimulation on the newly drilled coil sidetrack to increase well's PI and off -take.
Procedural Steps
Slickline with Fullbore Assist
1. Set a retrievable bridge plug in the tubing
2. Pull DGLV from Station #2 and set a circulation valve
3. Circulate well with 9.8 ppg brine and leave a 500' freeze protect in the tubing and inner annulus
4. Pull circulation valve and set a DGLV
S. MIT -T to 4500 psi with 0 psi on IA
6. MIT -IA to 4500 psi with 2500 psi on tubing
7. Pull retrievable bridge plug from tubing and drift to deviation
8. Set a LTP in deployment sleeve
Special Projects with Fullbore Assist
9. Rig up tree -saver for fracturing operations
10. Execute three fracture stimulation with the following pressure limits:
Maximum Anticipated Treating Pressure:
6600 psi
Maximum Allowable Treating Pressure:
7600 psi
Stagger Pump Kickouts Between:
6840 psi and 7220 psi (90% to 95% of MATP)
Global Kickout:
7220 psi (95% of MATP)
N2 IA Pop-off Set Pressure:
4275 psi (95% of 4500 psi MIT -IA)
IA Minimum Hold Pressure:
3600 psi
Treating Line Test Pressure:
8600 psi
Maximum Anticipated Rate:
22 bpm
OA Pressure:
Monitor and maintain open to atmosphere
Pane 1 of 2
Coiled Tubing
11. Perform a fill cleanout to TD of the well post stimulation
Slickline
12.Install a generic GLV design
Well Testers
13. Flow well back post stimulation to ensure solids are at a manageable level for facilities to handle and conduct a
post frac well test
Paae 2 of 2
Date: April 51", 2018
Subject: L-1181_1 Fracture Stimulation
From: Tyson Shriver— Wells Engineer, Alaska
e: Tyson.Shrlyer(n1bp.com
o: 907.564.4133
c: 406.690.6385
David Wages — Wells Engineer, Alaska
e: David.Waees bp.com
o: 907.564.5669
c: 713.380.9836
To: Chris Wallace
Attached is BP's proposal and supporting documentation to perform a fracture stimulation on well L -118L1 in the
Kuparuk reservoir of the Prudhoe Bay Unit.
Well L-1181.1 is a coiled tubing drilling sidetrack that was drilled March 2018. The well is an undulating lateral (^'4000')
through the Kuparuk C sands that is expected to be fracture stimulated. This is a cementless 2-3/8" completion with
three ball drop frac sleeves installed. A ball drop completion was chosen to help decrease cost & time and improve
efficiency of fracturing operations as compared to a plug and pert completion. The fracs are planned to connect all C -
sands to increase well productivity. BP is applying for a three -stage fracture stimulation of L -118L1.
Please direct questions or comments to Tyson Shriver or David Wages.
Section 1— Affidavit of Notification (20 AAC 25.283, a, 1):
All owners, landowners, surface owners and operators within % mile radius of the current wellbore trajectory have been
provided a notice of operations on 04/05/2018:
ConocoPhillips
ExxonMobil
Chevron
Department of Natural Resources
Section 2 — Plat Identifying Wells (20 AAC 25.283, a, 2):
Plat
Figure 1: Plat showing well location (highlighted in red) and all wells that penetrate within one-half mile of the current wellbore trajectory and
fracturing interval (brown & orange outline).
N
�C
2
t
�lA.
3Y
C_
Y
T
J111 k
�
v
(
X -
-ZG?
<nA'j
<< y ^
y y
- L-naa L-teb L.2ilt —
1iBF�-- --��-
�
y r �-fBY�'Qj4l
TyNI➢if
IT
f
o - =Do
• L -118U Fracs
L-ttBLt
— Weft WMM Mnrile of L -118L1
urcn:
wes, Uei6. emslf•e m>Awnea W eoxn
�•9�x
®:eet
by
-118L1
L-1181.1 Pmducbw Interval 1r
Nve Mer
0L
OL -11811 I/2 %file Buffer
MAP 1
BP Leases
Figure 1: Plat showing well location (highlighted in red) and all wells that penetrate within one-half mile of the current wellbore trajectory and
fracturing interval (brown & orange outline).
Well Name Well Classification Well Status Well Name Well [lasslficarinn well
I L -UTA I Development I Oil Producer Gas Lift I
L -02A Development Abandoned
L-02AP61
Development
Plugged Back For Redrill
vel
Development
Oil Producer Shut -In
vegged
Development
Plugged Back For Redrill
vel
Development
Oil Producer Shut -In
ve
Development
Suspended
vegged
Development
"L-03APB1Development
Plugged Back For Redrill
Service
Water Injector Injecting
Development
Oil Producer Gas Lift
Development
Oil Producer Gas Lift
Development
Oil Producer Gas Lift
Development
Plugged Back For Redrill
L-102PB2
Development
Plugged Back For Redrill
L-103
Service
Water Injector Injecting
L-104
Development
Oil Producer Gas Lift
L-105
Service
Water Injector Injecting
L-106
Development
Oil Producer Shut -In
L-107
Development
Oil Producer Gas Lift
L-108
Service
Miscible Injector Shut -In
L-109
Service
Water Injector Injecting
L-110
Development
Oil Producer Shut -In
L-111
Service
Water Injector Injecting
L-112
Development
Oil Producer Shut -In
L-114
Development
Abandoned
L -114A
Development
Oil Producer Shut -In
L-115
Service
Water Injector Injecting
L-116
Development
Oil Producer Gas Lift
L-117
Service
Water Injector Injecting
L-118
Development
Oil Producer Shut -In
L-119
Service
Water Injector Injecting
L-120
Development
Oil Producer Gas Lift
L-121
Development
Abandoned
L -121A
Development
Oil Producer Shut -In
L-122
Development
Oil Producer Gas Lift
L-123
Service
Miscible Injector Shut -In
L-123PB1
Development
Plugged Back For Redrill
L-124
Development
Oil Producer Gas Lift
L -124P61
Development
Plugged Back For Redrill
L -124P82
Development
Plugged Back For Redrill
vMPlugged
l Producer Gas Lift
vel
Well
vegged
Back For Redrill
ML-20IL3PBI
vel
Well
ve
Well
vegged
Back For Redrill
Well Name Well Classification Well Status
L-200
Development
Oil Producer Shut -In
L-20OLl
Development
Oil Well
L-2001_2
Development
Oil Well
L-219
Service
Water Injector Shut -In
L-220
Service
Water Injector Shut -In
L-221
Service
Water Injector Shut -In
L-222 I
Service I
Water Injector Injecting
L-223
Service
Miscible Injector Shut -In
L-250
Development
Oil Producer Gas Lift
L-25OLl
Development
Oil Producer Gas Lift
Well Name Well Classification well status
L-216
Service
Water Injector Injecting
L-217
Service
Miscible Injector Shut -In
L-218
Service
Water Injector Shut -In
L-2501_2
Development
Oil Producer Gas Lift
L-250PBI
Development
Plugged Back For Redrill
L-50
Development
Oil Producer Shut -In
L-50PB1
Development
Plugged Back For Redrill
NWEl-01
Exploratory
Abandoned
V-04
Development
Oil Producer Gas Lift
Sections 3-4— Exemption for Freshwater Aquifers (20 AAC 25.283, a, 3-4):
Well L-1181_1 is in the West Operating Area of Prudhoe Bay. Per Aquifer Exemption Order No. 1 dated July 11, 1986
where Standard Alaska Production Company requested the Alaska Oil and Gas Conservation Commission to issue an
order exempting those portions of all aquifers lying directly below the Western Operating Area and K Pad Area of the
Prudhoe Bay Unit for Class II Injection activities. Findings 1-4 state:
1. Those portions of freshwater aquifers occurring beneath the Western Operating and K pad areas of the Prudhoe
Bay Unit do not currently serve as a source of drinking water.
2. Those portions of freshwater aquifers occurring beneath the Western Operating and K pad areas of the Prudhoe
Bay Unit are situated at a depth and location that makes recovery of water for drinking water purposes
economically impracticable.
3. Those portions of freshwater aquifers occurring beneath the Western Operating and K pad areas of the Prudhoe
Bay Unit are reported to have total dissolved solids content of 7000 mg/I or more.
4. By letter of July 1, 1986, EPA -Region 10 advises that the aquifers occurring beneath the Western Operating and
K pad areas of the Prudhoe Bay Unit qualify for exemption. It is considered to be a minor exemption and a non -
substantial program revision not requiring notice in the Federal Registrar.
Per the above findings, `Those portions of freshwater aquifers lying directly below the Western Operating and K Pad
Areas of the Prudhoe Bay Unit qualify as exempt freshwater aquifers under 20 AC 25.440" thus allowing BP exemption
from 20 AAC 25.283, a, 3-4 which require identification of freshwater aquifers and establishing a plan for basewater
sampling.
Sections 5-6 — Detailed Casing and Cement Information (20 AAC 25.283, a, 5-6A):
The parent bore of L -118L1 (L-118) was spudded 03/22/2003.
A 9-7/8" hole was drilled to 3310' MD where 7-5/8", 29.7#, L-80 / 5-95, BTC / NSCC casing was run (casing shoe at 3295'
MD, 2622' TVD) and cemented in place with 293 bbls of Permafrost L lead cement slurry (10.7 ppg) and 41 bbis of 15.8
ppg Premium Class G tail cement. During cement displacement, approximately 50 bbls of good cement were seen back
to surface. The 9-7/8" casing was successfully pressure tested to 3500 psi for 30 minutes. Float collar, shoe and 20' of
new formation were drilled out with a 6-3/4" bit to 3330' MD where a leak off test (LOT) was performed with 9.7 ppg
mud (675 psi surface pressure, 2642' TVD, 14.6 ppg EMW).
A 6-3/4" production hole was drilled from 3330' to 8980' MD where a combination of 3-1/2", 9.2#, L-80, IBT / EUE /
NSCT / TC -II / BTC x 5-1/2", 15.5#, L-80, BTC casing was run (casing shoe at 8969' MD, 6743' TVD) and cemented in place.
The casing was cemented with 62 bbis of 12.5 ppg Silica Lite lead cement and 24 bbls of 15.8 ppg Class G premium
cement. No losses were noted during cementing and plug bumped on calculated volume. Pressure was bled off the
casing and floats held.
The completion assembly consisting of 3-1/2", 9.3#, L-80 IBT tubing was run to 8481' MD. Corrosion inhibited seawater
was reverse circulated into the IA and tubing was stabbed -15' into the polished bore receptacle at 8469' MD (6251'
TVD). Pressure tested tubing and 3-1/2" production liner to 4000 psi for 30 minutes. On 12/31/2017 coiled tubing
performed a cement packer repair where 6 bbls of 15.8 ppg cement were circulated into the IA leaving estimated top of
cement at 7950' MD (5748' TVD).
L-1181.1 kicked -off in the existing parent bore perfs and was directionally drilled to 12,780' MD (6686' TVD) undulating
through the Kuparuk sands. An uncemented 2-3/8", 4.7#, L-80, TH511 liner was run consisting of three ball drop frac
sleeves. Since this is a coiled tubing drilling sidetrack, the existing production tubing is being utilized for production.
Section 7 — Pressure Testing (20 AAC 25.283, a, 7):
Table 1—Tubine and Vrnd,,M.n raai..o u.e.....e re..:....
Date
Tubing Pressure
(psi)
Production Casing Differential Pressure
Pressure (psi) (psi)
TBD
4500
0 4500
TBD
2500
4500 2000
: I 1r i.uumg will oe pressure testea to 45uu psi aitterential which is greater than 110% max differential during
stimulation per 20 AAC 25.283, b.
7600 psi (max tbg pressure) — 3600 psi (IA casing pressure) = 4000 psi (differential while stimulating)
4000 psi (differential) x 1.1= 4400 psi (110% max differential pressure while stimulating)
Section 8 — Accurate Pressure Ratings of Tubulars and Schematic (20 AAC 25.283, a, 8):
Proposed Wellbore Schematic
--—— RC
acrlwTOR= BaiURc
ice. ELEV � 76.9
BF. aEV = 52.03'
1fOP= 3001
Max Anyle = 101' g
JMD DRAFT
Minimum ID =1.375" @ 12753'
2-318" NS FRAC SLEEVE
`FST TOC N A 02131I171�'-V 7"
E51R•CSG-1550,1-Mn=4950•_I-{., 8468•
7-3B' FRAr Of1RT GI ccvcc
Di SEAT 4.
ACTlY1LSIZE OfC
DATE
TYPE
8 7688'
t2r
2-318' C
9331'
Onium NDS
12257
JMD DRAFT
Minimum ID =1.375" @ 12753'
2-318" NS FRAC SLEEVE
`FST TOC N A 02131I171�'-V 7"
E51R•CSG-1550,1-Mn=4950•_I-{., 8468•
7-3B' FRAr Of1RT GI ccvcc
PERFORATION SUMMARY
JULOG: SWDVISION D-NON03129103
ANGLEAT 101 10'® 8728
8 I 8726-8776 I O
L-11! LI
L-118
ti
L-1 1 B
SAiETYNOTW: WELL ANGLE> 70° @ 1895'.
MAx DL5:/97°@8l50'.
ST
Di SEAT 4.
ACTlY1LSIZE OfC
DATE
TYPE
8 7688'
t2r
2-318' C
03131118
21
1 '.ACT
2-'318' C
00!3111919
1030 2
1130'
2-518• C
ON31118
PERFORATION SUMMARY
JULOG: SWDVISION D-NON03129103
ANGLEAT 101 10'® 8728
8 I 8726-8776 I O
L-11! LI
L-118
ti
L-1 1 B
SAiETYNOTW: WELL ANGLE> 70° @ 1895'.
MAx DL5:/97°@8l50'.
ST
M)
TVD
DPI
TYPE
VLV
UTRI VURT
DATE
4
4786
3502
51
1030 2
DW
M 0
00113!16
3
6385
4196
51
103& 2
DW
M 0
09113116
2
7671
5486
23
KBG-2
DIM
M 0
04H3H6
1
8381
6166
14
KBI
101M
M 0
11r2W11
•••�� �-•+••• •mow �Wcv�mwn.°do Wvna.0 of Itl[i FAIW I
asBs• s•1T2• H1Bs x rp. o=2e1s-
8564• X NPEUO LOGO®ON 11/1783
SEAL BORE O = 2.25'
MILLOUT WINDOW (L-118 L1) 8730' - 8736'
647EMJUNal-HOLCEMMIGNIS
O41O1N3MPLDrIM
046HH8RACK(LA78L1(041W18
_.-.
"_ ' - ..�...........�.�.....� auric...... Wcn L-aa0u.
L-116 L1
BOPEALIS UIr
%CLL: L-110 L1
FB6R No: 2174)06
AR No: 504M9-23043.00, 60
BVE1clsIeraOon (Alaska)
Table 2—Tubular Ratings
Size/Name
Weight
Grade
Connection
ID
Burst, psi
Collapse, psi
7-5/8" Surface Casing
29.7#
L-80
BTC / NSCC
6.875"
6890 / 8180
4790/5120
5-1/2" Production Casing
15.5#
L-80
BTC -M
4.950"
7000
4990
3-1/2" Production Liner
9.2#
L-80
IBT/ NSCT/ E U E
2.992"
10,160
10,530
/ BTC / TC -11
2-3/8" Production Liner
4.7#
L-80
HYD511
1.995"
11,200
11,780
3-1/2" Production Tubing
9.2#
L-80
IBT
2.992"
10,160
10,530
Wellhead
Wellhead: FMC manufactured wellhead, rated to 5,000 psi.
• Tubing head adaptor: 11" 5,000 psi x 3-1/8" 5,000 psi
• Tubing Spool: 11" 5,000 psi w/ 2-1/16" side outlets
• Casing Spool: 11" 5,000 psi w/ 2-1/16" side outlet
Tree: Cameron 3-1/8" 5,000 psi
Tree -saver
Top connection is 3" 1502 hammer union which will be crossed over to 4" 1002 to connect to the treating iron.
Bottom connection is 7-1/16"
The tree -saver is rated to 10,000 psi.
Figure 3—Diagram of tree -saver to be used during fracture stimulation.
Section 9 — Geological Frac Information (20 AAC 25.283, a, 9):
Table 3—Geological Information
Formation
MD
Top
MD
Bottom
TVDss
Top
TVDss
Bottom
TVD
Thickness
Frac
Grad
Lithological Desc.
Top HRZ (parent)
8373
8578
6081
6280
199
—0.83
Shale
Top Kalubik (parent)
8578
8724
6280
6424
144
—0.83
Shale
TKUPC4(parent)
8724
8732
6424
6431
7
0.63
SS
KOP
8730.0
-
6429
-
-
SS
TKOE
8732
8740
6431
6439
8
0.63
SS
TKOD
8740
8757
6439
6456
16
0.63
SS
TKC3C
8757
8779
6456
6476
20
0.63
SS
TKOB
8779
8802
6476
6494
19
0.63
SS
TKC3A
8802
8811
6494
6501
7
0.63
SS
TKC2E
8811
8819
6501
6507
6
0.63
SS
TKC2D
8819
8828
6507
6513
6
0.63
SS
TKC2C
8828
8837
6513
6519
6
TKC2B
8837
8844
6519
6523
4
TKC2A
8844
8854
6523
6528
6
TKC1C
8854
8871
6528
6537
8
=0.63SS
TKC1B
8871
8899
6537
6548
11
TKC1A
8899
-
6548
-
-
Invert
8950
6556
SS
Invert TKC1A
9021
6549
0.63
SS
InvertTKC1B
9089
9021
6538
6549
11
0.63
SS
Invert TKC1C
9131
9089
6530
6538
8
0.63
SS
Invert TKC2A
9155
9131
6526
6530
4
0.63
SS
Invert TKC2B
9188
9155
6521
6526
6
0.63
SS
InvertTEX
9231
9188
6513
6521
8
0.63
SS
Invert TKC2D
9260
9231
6508
6513
5
0.63
SS
Invert TKC2E
9293
9260
6502
6508
6
0.63
SS
Invert TKC3A
9324
9293
6496
6502
6
0.63
SS
InvertTKC3B
9420
9324
6481
6496
15
0.63
SS
Invert TEE
9990
9420
6487
6481
-6
0.63
SS
Revert TKC3C
11478
-
6565
-
-
0.63
SS
TD
12780
6609
-
SS
Top B Silts (Parent)
-
6559
6721
162
0.7
Silts
Top A Interval
(Projected)
6721
6814
93
0.72
Silts
Top Miluveach
(Projected)
6814
980
—0.84
Shale
Within the reservoir section, formation tops were picked from GR logs and cuttings while drilling L-1181-1. The upper
confining zone (HRZ) and top Kuparuk were determined from the parent wellbore logs and cuttings. Top of the lower
confining Miluveach shale was projected from isopach maps of the area and thickness was determined from offset wells.
Sections 10-11— Location of Wells, Mechanical Information and Faults (20 AAC 25.283, a, 30-11):
Area of Review
N
3
A
fi LI4Yi"rv.'`;
1,500 C 15C9
FEEL
by
L -118L1
0 flat 2: Fault Analysis
• _1190P
R. TM1�.PPgS
L-ir9Ll �49rLrn990
�L-11:9L1
MI: Mt91b L. m1e 01 L -a La
TS^J Fyry W1V�r1
_ 119L1 P2GRtpn intern Ari U1. SP'
O= 9L11::11118Y
'hNt U,,6 02asone malrl rwe b.: epm
a Yynpo:
MAP 1
- I --1-1IS nICO VI nevlew lurown ouumel or wells ana taus transecting the confining zones within one-half mile of L -118L1
wellbore trajectory (red line). Also depicted are the planned fracture locations with "200' half-length hydraulic fractures (blue lines) in the main
stress orientation (-N-5).
w
Y
C
3
N
3
v
di
L
O
m
c
O
C
Y
m
L
cu
w
a
c
0
CL
m
3
cc
v
O
v
Q
OJ
L
C
L
3
3
L
V
m
N
L
w
C
N
E
v
m
c
-
m x
Y
N
.n
m
A
C d
Y
E 3
G
3
E w a
L
Y_
N r0+
N 7
O 00
m
m
o
UL
O N
LL
L
7
a "
n
a0+ +L.+
N
v •�
c
,c 3
p Y
O O
N E a
c C6
y
a O
A w
O E
v cu
m
Lon
rn
3 m
`L-
a 0 v
h E o
3
v
Y
m •N n
N 3 w
m
L J
N
On CLCL
V
U
CL
p m
Z
L y
0
00,1
CL oo
Y n
E
,(� o
ON
00 N N
u0
d
m
0 \
N 0 U
C
L N N
O E
m
3 m ao
m
n
V
y
W 3
c 0
a0
v a
0 ` 0
O N
C
d y C
u N L
to
N N
v N W
u a N
m�
a E
a O 3
o Y
v, 0
CL c
o 3
Z. 3�o r
E
H
c '6
Y On 'O Y
O L00
O cu
0 u v
? u
0
C' n
E 0
-0 a
p
p_
u i o
3 vc
u
IE
Y
o£
Q
N v
J
v
O
�°
Y O
c u
E 3
0 u c
0. O
u
a
n m
m a v
u o0 v
m n
3 o L 3
OD Q p
c cu
3 c
-0„'
0 c~ N
O
N
m
E O 7
u N 0
c 00)
cu u 0 m
3”
0 u
en
u o o
vi 0
L
\ O
X y
b0
c H
q
N nw
a
u u c c
E
ti 0 0
u
v cO
�' 0000
w
I� C
'0
^ u NO O
M
o
-
n
y 3 Y
Y Y
Y Q \ n
N -0 •3
N ''
v 3 ,-i n
Y O a
Y n
Y N\ N
u L a
u
u m 0 O
a F' E
E LL E
C vi
rn O L
c L
ri Y
O .,
N w •3
NN
0 3
0 0 a
C C
m
N a
cu
N O/ O O/
W CL U
O 'O
00 n=
Y y m
�o m SEL
m S Y
O O Y
O O
O c
n
od) ENE
ca
L
to
E
3
w 0 3
w o u
° o
` L
C
y Y
Y C
X
0 O
a N
Y U0)
L
a
L Y C
n
a C E
3
v
`1 U
L N
N nJ U
00 » _m
no o u
On v 3 2
CL
.010 N
v
L Y
w 0 L
L N
1p
m
0
O
a o
p
N
c l7
v
t"1 Y a
^ D
N O a
GJ
N u yNj
0/
E
E m
J aL+ d
J u U
c
-
.n
m
n
u ,
V
m
o
m
m
o
•� Y
�Y
8
a "
oa
o,
&
ao
j
a
ti
c
=a
o
u
c
-
.n
m
V
m
m
tY
•� Y
�Y
8
a "
a�
O
&
ao
j
a
ti
c
=a
o
u
r
`oo
E a
E a
E
E
V
U
V
E
n
O
p
p
n m
o
m-
.�
V
e
A
o A
O
c
-
.n
m
V
m
- E
_ E
E
a
V
V
O
F 9
j
j
V
ti
c
u
o
u
r
`oo
o
_
E
-
J
-
E
m m
O
p
p
n m
o
m
E
V
e
O
m
E
E
u
s
60
�
o
s
C
m
m
q
G
Y
s
o
-
n
o
e
b0
1p
m
m
V
c
-
.n
m
V
m
V
V
V
C
y
O
O
'F
u
u
y
ti
c
u
o
u
n
r
`oo
o
_
3
-
-
_
3 z
L FA
p
BP's technical analysis based on seismic, well and other subsurface information available indicates that there are 6
mapped faults that transect the Kuparuk interval and enter the confining zone within the %: radius of the production and
confining zone trajectory for L-1181-1. Fracture gradients within the confining zone (Kalubik and HRZ) will not be
exceeded during fracture stimulation and would therefore confine injected fluids to the pool. The HRZ and Kalubik in
this area are predominately shale with some silts with an estimated fracture gradient of -0.83 psi/ft. Thickness and
fracture pressure for the confining layer is discussed in Section 9.
No faults were crossed when the L-1181-1 was drilled. L -118L1 drilled close to the presumed tip out of Fault 1, but was
not seen drilling. Losses were taken from start and were assumed to be losses to the parent wellbore (that was fracture
stimulated). Total losses were 2318 bbls.
Fault #2-7 intersect the production interval and confining zone within the %: mile radius. Their displacements, sense of
throw and zone in which they terminate upwards in are given below.
Faults
THROW
Upward Fault
Termination Zone
Fault #2
40' (DTW)
Colville
Fault #3
10' (DTE)
Colville
Fault #4
80-150'
(DTE)
Schrader Bluff
Fault #5
100-120'
(DTN)
Colville
Fault #6
200' (DTE)
Ugnu
The location of Frac sleeve #1 of the production hole was drilled -30 degrees to the maximum horizontal stress which
will result in a transverse fracture. The fracture is planned to be initiated at the frac sleeve at 11748' MD. With a
fracture initiating at the sleeves and a modelled 200' half-length, 1000' of standoff exist between the tip of the fracture
and Fault #5 and 1100' of standoff exist between the tip of the fracture and Fault #6.
The location of Frac sleeve #2 of the production hole was drilled —50 degrees to the maximum horizontal stress which
will result in a transverse fracture. The fracture is planned to be initiated at the frac sleeve at 12250' MD. With a
fracture initiating at the sleeves and a modelled 200' half-length, 650' of standoff exist between the tip of the fracture
and Fault #5.
The location of Frac sleeve #3 of the production hole was drilled —35 degrees to the maximum horizontal stress which
will result in a transverse fracture. The fracture is planned to be initiated at the frac sleeve at 12752' MD. With a
fracture initiating at the sleeves and a modelled 200' half-length, 500' of standoff exist between the tip of the fracture
and Fault #5.
Table 4—Standoff Values.
Frac #1
11748' MD
Fault 5
1000'
Frac #1
11748' MD
Fault 6
1100'
Frac #2
12250' MD
Fault 5
650'
Frac #3
12752'MD
Fault 5
500'
Section 12 - Hydraulic Fracture Program (20 AAC 25.283, a, 12):
Fracture Stimulation Pump Schedule
STEP
STAGE
AVERAGE
COMMENTS
FLUID
PUMP
CF
DIRTY VOLUME
DIRTY VOLUME
PROPPANT
#
#
PPA
TYPE
RATE
RATE
STAGE
CUM
STAGE
CUM
STAGE
CUM
SIZE
BPM
BPM
BBL
BBL
GAL
GAL
LBS
LBS
1
Prime u pressure
tesfreezeProt
5
5.0
10
10
420
420
2
Injection test
WF128
2020.0
100
110
4,200
4,620
3
Shut down to isolate CPS
0.0
110
0
4,620
4
Calibration Test YF128FIexD
30
30.0
200
310
8,400
13,020
6
Flush
WF128
30
30.0
91
401
3,831
16,851
_
HARD
SHUTDOWN, MONITOR PRESSURE TILL
CLOSURE.
FLUID
PUMP
CF
DIRTY VOLUME
DIRTY VOLUME
PROPPANT
STEP
STAGE
AVERAGE
COMMENTS
TYPE
RATE
RATE
STAGE
CUM
STAGE
CUM
STAGE
CUM
SIZE
#
#
PPA
BPM
(BPM)
BBL
BBL
GAL
GAL
LBS
LBS
6
1
PAD
YF128FIexD
30
30.0
125
526
5,250
22,101
0
0
7-1
0.5
FLAT
YF128FIexD
3029.4
50
576
2,100
24,201
1,027
1,027
16/30 Sand
8
1
PAD
YF128FIexD
30
30.0
125
701
5,250
29,451
0
7,027
9
1
1
FLAT
YF728FIexD
30
28.7
50
751
2,100
31351
3,038
16/20 C -Lite
10
1
1
RAMP
YF128FIexD
30
287
38
789
1, 96
33,14
,011
1,528
4,567
16/20 C -Lite
11
1
2RAMP
YF128FlexD
30
27.6
38
827
1,596
34,743
2,933
7,499
16/20 C -Lite
12
7
3
RAMP
YF728FIexD
30
26.5
38
865
1,596
36,339
4,227
11,726
16120 -C-Lite
13
1
4
RAMP
YF728FIexD
30
25.5
38
903
1,596
37,935
5,424
17,150
16120 C -Lite
14
1
5
RAMP
YF128FIexD
30
24.6
38
947
1,596
39, 31
6,534
23,685
16/20 C -Lite
15
1
6
RAMP
YF128FI0xD
30
23.7
38
979
1,596
41,127
7,567
31,252
16/20 C -Lite
16
1
7
RAMP
YF128FIexD
30
22.9
38
1,017
1,596
42,723
8,530
39,782
78/20 C{8e
17
1
8
RAMP
YF128FIexD
30
22.2
38
1,055
1,596
44,319
9.,430
49,212
16120 C -Lite
18
1
8
FLAT
YF728FIexD
30
22.2
50
1,105
2,100
46,419
12,408
61,620
16/20 C -Lite
19
1
9
FLAT
YF728FIexD
30
21.5
50
1,155
2,100
48,519
13,517
75,137
16/20 CBL
20
7
70
FLAT
YF728FIex0
30
20.8
80
1,235
3,360
51,879
23,294
98,437
16/20 CBL
21
1
Dro Ball
DISPLACE
YF128FIexD
30
30.0
20
1255
840
52,719
0
98,431
22
2
DISPLACE
YF128FIex
30
30.0
49
1,305
,070
54,789
98,431
23
2
DISPLACE
YF128FIexD
12
12.0
20
1,325
840
55,629
0
98,431
24
2
PAD
YF128FIexD
30
30.0
36
1,340
1,500
56,289
0
98,431
25
2
0.5
FLAT
YF728FIexD
30
29.4
50
7 390
2,700
58,389
1,027
99,458
16130 and
26
2
PAD
YF128FIexD
30
30.0
125
1,515
5,2 0
63,639
0
99,458
27
2
1
FLAT
YF128FIexD
30
28.7
50
1,565
2,100
65,739
2,011
101,469
16120 C -Lite
28
2
1
RAMP
YF728FIexD
30
28.7
38
1,603
1,596
67,335
1,528
102,998
76/20 C -Lite
29
2
2
RAMP
YF728FIexD
30
27.6
38
1 641
1,596
68,937
2,933
105,930
16/20 C -Lite
30
2
3
RAMP
YF128FIex)
30
26.5
38
1,679
1,596
70,527
4,227
710,157
16120 C -Lite
31-2
4
RAMP
YF1241 w
30
25.5
38
1,717
1,596
72,123
5,424
115, 81
16/20 C -Lite
32
2
5
RAMP
YF128FIexD
30
24.6
38
1755
1,596
7 ,719
6,534
122,116
76120 C -Lite
33
2
6
RAMP
YF728FIexD
30
23.7
38
7,793
1,596
75,315
7, 67
129,683
76120 C -Lite
4
2
7
RAMP
YF126FIexD
30
22.9
38
1,837
1,59
76,9 1
8,530
138,213
16120 -Lite
35
2
8
RAMP
YF128 IexD
30
22.2
38
1,869
1, 96
78,507
9,43
147,643
1620 C -Lite
36
2
8
FLAT
YF128FIexO
30
22.2
50
1,919
2,100
80,607
12,408
180,051
76120 C -Lite
37
2
9
FLAT
YF128FIexD
30
21.5
50
1,969
2,100
82,707
13,517
173,568
76120 CBL
38
2
10
FLAT
YF128FIexD
30
20.8
80
21049
3,360
86,067
23,294
196,862
16/20 BL
3
2
Dro Ball
DISPLACE
YF128FIexD
30
30.0
20
2,069
840
86,907
0
196,862
40
3
DISPLACE
YF128FIexD
30
30.0
51
2,120
2,151
89,059
0
196,862
41
3
DISPLACE
YF128FIexD
72
72.0
20
2140
840
9,899
0
196,862
42
3
PAD
YF128FIexD
30
30.0
34
2,754
7,419
90,477
0
196,862
43
3
O.S
FLAT
-PAD
YF128FIexD
30
29.4
50
2,204
2,7 0
92,577
1,02
197,889
16/30 and
44
3
YF128FIexD
30
30.0
125
2,329
5,250
97,827
0
197,889
45
3
7
FLAT
YF128FIexD
30
28.7
50
2,379
2,100
99,927
2,011
199,900
16/20 C -Lite
46
3
1
RAMP
YF128FIexD
30
28.7
38
2417
1,596
101,523
1,528
201,429
16/20 C -Lite
47
3
2
RAMP
YF128FIexD
30
27.6
38
2,455
1,596
103,119
2,933
204,361
16120 C -Lite
48
3
3
RAMP
YF128FIexD
30
26.5
38
2,493
1,596
104, 15
4,227
208,588
16/20 C•Lite
49
3
4
RAMP
YF128FIex0
30
25.5
38
2,531
1,596
106,317
5,424
214,012
16120 C -Lite
50
3
5
RAMP
YF128FIexD
30
24.6
38
2569 -T-5-96107
907
6,534
220,547;16/20
C -Lite
51
3
6
RAMP
YF728FIexD
30
23.7
38
2,607
1596
109503
7,567
228,1140
C-Lite523
7
RAMP
YF128FIexD
30
22.9
38
2,645
1, 6
711,0998,53
236,6440
C-Lite53
3
8
RAMP
YF728FIexD
30
22.2
38
2,663
1,596
112,695
9,4 0
246,0740
Cute54
3
6
FLAT
YF128FIex0
30
22.2
50
2733
2,100
114,795
12,408
258,4820
C -Lite
YF128FIexu
30
21.5
50
2,783
2,100
116,89
13,517271,99920
L3YF128FIexu
30
20.8
86
2,863
3, 60
120,255
23,294295,293
BL
57
3
FLUSH
YF128FIexD
30
30.0
20
2,883
840
121,095
0
295,293
58
3
FLUSH
WF128
30
30.0
37
2,920
1,538
122,633
0
295,293
59
3
FLUSH
FreezeProt
12
12.0
27
2,947
1,750
123,783
0
295,293
TOTALS
2987
295,293
Chemical Disclosure
`W`
1`1'°'AlmaAlma'JY'eIH:
Schlumberger
1_1181I
eas #/ ,Wd:
Sole:
Alma
Caunty,V .nslr:
Case:
Diztlasme TYp
P.eAOb
We Competed:
5)1f7018
Date Prepared:
SlIV20131155 "1
Report b:
RPT -53996
MMMMM�211
8103
a.. ...
,• Surfxtas _ "•a +7�06a0
115.0 GM
8reaiet - c : 700Dfr1
40A Lb
_
&Mdw - . ipiD al
610.0Ib
Gd6r81iEmt
3,120.0 Lb
Croaa� : S
25SA Oat
SOR YBtbloor _-_115-0
OxYR22bTIeaD^NFtffi
Lttp28 �ICbyiwNW
_
AOus Sai
WS526�
23x0Addme
ISA Lb
Badsriude .. -
OD -0 1b
O
A'oPPiKABes me' : --111s
3,100.0 Lb
Amuamr
60A GalD
Y'Y1=c - -:xtTabaes
_ ]09.0 Lb - -0
rn>: :_-._emsaboms
-:,;. SOO.O ID
n(LmaumYmmb@Se Te ACb.abae rtiR9D96 eMiluPmcYpn aTwu.a,eaasra.maY�aW�Y'n< _._
-
Wrter(IncWft Mi, ,Vater Supplied by
* —
Ceram¢ materalz and'.vasr, dxvni�ib
- --z4 %'-
1400604
Quark, crjv a, Ine S ica
GZ %
67-tl'1
?-kytlrovy-H,W.�4trimethyetharmmmuYm dhloride
<7 %
1313331
Vlexi
- -
<O %
Ethylene Gl�eal —_ _
<OA %
TZ7-Sq-0
Diammpneum eroAdis ,.hare
Gal qg
_ 674"
Prupan2-cl
_— 229898-017-_
2-Propenoic aciq polymer-rvith wtlium phcVfimxe
_ _-- _—
6SM4"
Acoholz, dl-16zeconAare, efkoqlatetl
<0.1 %
111-762
2-buc
<O %
— - 34390-01-1
Ethorylxad Cil AlmYeo
<0-1A %
1303-964
Scdau Tetnbo Deahydrate
-0.01%
25038-724
VIIObdeoe chbrideJmeOiyppyPay. cppolYmea
_
- _. _
1310-73-2
Sodium
6813E-335
5h Ah'php_
7647-145
- Sodaen chkaide _
<OA196
<0A1 %
91053-39-3
Oixamxews eamh, ol!mn.ad
<0.01 %.._.
_ 1161T-8
_ - —_
bis-2a>eakac acid
<OAl %
1OD43-52-4
_ _ _
CMd. Chloride
_
<OAl
1L24Ni
lhulecanol
-0.01
]D3T7463
_
mnitrat�
-0.0037631$69
1:1
N_
26172-554
7786-363
5-dibro-z-meth zl.isothiaxdol-34ne
-0.001 %
Mag_rreslum chloride
-0.001 %
1 "9K
Magnesium zaicate hytate(to,) —
-0.001%
111-466
2,2'bsytllethaipi (impurilyj
_
-0.001 %
_ 004840
9
tetra 0u
-0.00196
695585-15-z
Oiutan
-0.001 %
125ao587-0_
O't'dn gwn
-0.001 %
2682-261
z-tnNnyL2l.isotlriu4i3ar _.
---- - <o.ao 96
14/64461
Cristobalhe
<0.0001 %
7447.467
_
Potassium ch u de i
<OA001 %
127-042
Aca0c.d '.sah
-0.0001%
64137
Aoebc acid (imWriNY
-0.0001 %
e Senbmercgw Sold UsW br avbPbracen Abrke e�pmevsien.
tr
Page- 1 / 2
Anticipated Treating Pressures
Table 5—Anticipated Pressures
Maximum Anticipated Treating Pressure:
6600 psi
Maximum Allowable Treating Pressure:
7600 psi
Stagger Pump Kickouts Between:
6840 psi and 7220 psi (90% to 95% of MATP)
Global Kickout:
7220 psi (95% of MATP)
N2 IA Pop-off Set Pressure:
4275 psi (95% of 4500 psi MIT -IA)
IA Minimum Hold Pressure.
3600 psi
Treating Line Test Pressure:
8600 psi
Maximum Anticipated Rate:
22 bpm
Sand Requirement:
182,000 lbs 16/20 Carbo Lite
110,000 lbs 16/20 CarboBond Lite
Minimum Water Requirements:
3100 bbls (pump schedule: 2700 bbls)
OA Pressure:
Monitor and maintain open to atmosphere
There are three overpressure devices that protect the surface equipment and wellbore from an overpressure event. 1)
Each individual frac pump has an electronic kickout that will shift the pumps into neutral as soon as the set pressure is
reached. Since there are multiple pumps, these set pressures are staggered between 90% and 95% of the maximum
allowable treating pressure. 2) A primary pressure transducer in the treating line will trigger a global kickout that will
shift all the pumps into neutral. 3) There is a manual kickout that is controlled from the frac van that can shift all pumps
into neutral. All three of these shutdown systems will be individually tested prior to high pressure pumping operations.
Additionally, the treating pressure, IA pressure and OA pressure will be monitored in the frac van.
Frac Dimensions:
Frac.
Top
Sleeve
(ftMD)
Base
Sleeve
(ftMD)
TopYDftth
Sleeveands
(ftTVDSS)VDSS)
Top
Depth Base
C Sands Frac Height
(ftTVDSS) (ft TVD)
Frac Half -
LengthLocaiton
(ft)#1
11,748
11,750
6582536
6663 127
—Inn#2
12,250
12,252
6600548
6682#3
12,752
12,754
6609559
6693 134
200
were caicuiated using modeling software.
Maximum Anticipated Treating Pressure: 6600 psi
The
abo
ve
valu
E41
Surface pressure is calculated based on a closure pressure of —0.63 psi/ft or —4200 psi. Closure pressure plus anticipated
net pressure to be built and friction pressure minus hydrostatic results in a surface pressure of 6600 psi at the time of
flush.
4200 psi (closure) + 500 psi (net) + 6325 psi (friction) - 4425 psi (hydrostatic) = 6600 psi (max surface press)
The difference in closure pressures of the confining shale layers determines height of the fracture. Average confining
layer stress is anticipated to be —0.83 psi/ft limiting fracture height to the thickness of the C -sands.
Fracture half-length is determined from confining layer stress as well as leak -off and formation modulus. The modeled
frac is anticipated to reach a half-length of ^200 ft.