Modernized Royalty Framework (MRF)
2017
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Modernized Royalty Framework (MRF) 2017 1 D isclaimer This - - PowerPoint PPT Presentation
Modernized Royalty Framework (MRF) 2017 1 D isclaimer This presentation is for informational purposes only, pending approval of the: Petroleum Royalty Regulation 2017 Natural Gas Royalty Regulation 2017 Oil Sands Royalty Regulation,
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This presentation is for informational purposes only, pending approval of the:
Note: Throughout this presentation there are a number of examples which may include rounding of calculation in order to simplify presentation of the material.
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Royalty Review Process
Advisory Panel Work and Final Report Fall/Winter 2015 Release of Calibration Formulas April 2016 Industry Training Sessions Fall/Winter 2016 New Framework takes effect January 2017 Strategic Overlays, Detailed Rules Spring/Summer 2016
– All programs and ARF formula only apply to wells spud on or before December 31, 2016 – Benefits continue until they run out or when the regulation expires on December 31, 2026
– Applies to wells spud on or after January 1, 2017; early opt-in and ARF wells re-entered on or after January 1, 2017 – R<C*: 5% flat royalty rate – R≥C*: Post-C* formulas Rp + Rq (includes maturity threshold)
– Emerging Resources Program (ERP) – Enhanced Hydrocarbon Recovery Program (EHRP)
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C*= ACCI * ((1170 * (TVD - 249))
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in metres determined by measuring the vertical distance in metres in a perpendicular line from the kelly bushing of a well to the base of the deepest drilled leg
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proppant placed in a well in tonnes as determined by the Minister using the records of the AER and the proppant equivalent prescribed by the Minister Proppant information will be required for each leg fractured
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Proppant Equivalency Table Equivalency Factor
1 1.5 2.5
Type of Completion
Sand (tonnes) Coated Sand (tonnes) Engineered/Manufactured (tonnes) Acid (m3) = Acid concentration * 10 7.5% concentration 0.75 15% concentration 1.5 28% concentration 2.8
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Proppant Equivalency Table Examples
Equivalency Factor Volume TPPe 1 700 tonnes 700 1.5 700 tonnes 1050 Type of Completion Sand (tonnes) Coated Sand (tonnes) Engineered/ Manufactured (tonnes) 2.5 700 tonnes 1750 Acid (m3) = Acid concentration * 10 7.5% concentration 0.75 500m3 375 15% concentration 1.5 500m3 750 28% concentration 2.8 500m3 1400
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Y Factor
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C*= ACCI * ((1170 * (TVD - 249)) + (3120 * (TVD - 2000)) + (Y * 800 * TLL) + (0.6 * TVDa * TPPe))
C*= ACCI * ((1170 * (TVD - 249)) + (3120 * (TVD – 2000)) + (Y * 800 * TLL) + (0.6 * TVDa * TPPe))
C*= ACCI * ((1170 * (TVD - 249)) + ((3120 * (TVD - 2000)) + (Y * 800 * TLL) + (0.6 * TVDa * TPPe))
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Proppant Equivalency Table Equivalency Factor
1 1.5 2.5
Type of Completion
Sand (tonnes) Coated Sand (tonnes) Engineered/Manufactured (tonnes) Acid (m3) = Acid concentration * 10 7.5% concentration 0.75 15% concentration 1.5 28% concentration 2.8
There are two formulas for calculating C*:
C*= ACCI * ((1170 * (TVD – 249)) + (Y * 800 * TLL) +(0.6 * TVDa * TPPe)) When to use: Wells spud on or after January 1, 2017 or for approved early opt-in wells
C*= ACCI * ((1170 * (TVD - 249)) + (3120 * (TVD - 2000)) + (Y * 800 * TLL) + (0.6 * TVDa * TPPe)) When to use: Wells spud on or after January 1, 2017 or for approved early opt-in wells
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Scenario: A new multi-leg well spud on June 15, 2017 with a TVD = 701m, TLL = 7610m, TMD = 8096m and TPP = 2945 tonnes of sand
1. Calculate the Y Factor
Y = 1.39 – (0.04 * (TMD/TVDa)) = 1.39 – (0.04 * (8096/701)) = 0.93
2. Calculate the Proppant Equivalency = 2945 * 1.0
= 2945
3. Calculate the C*
C* = ACCI * ((1170 * (TVD – 249)) + (Y * 800 * TLL) + (0.6 * TVDa * TPPe)) = 1.00 * ((1170 * (701– 249)) + (0.93 * 800 * 7610) + (0.6 * 701 * 2945)) = 1.00 * (528,840 + 5,661,840 + 1,238,667) = $7,429,347
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Scenario: A new single leg well spud on June 15, 2017 with a TVD = 4724m, TLL = 1486m, TMD = 6210m and TPP = 965 tonnes of engineered sand
3 Steps to calculate C* 1. Calculate the Y Factor
Y = 1.39 – (0.04 * (TMD/TVD)) = 1.39 – (0.04 * (6210 / 4724)) = 1.34 Due to Y being greater than 1, Y defaults to 1.00
2. Calculate the Proppant Equivalency = 965 * 2.5
= 2412.5
3. Calculate the C*
C* = ACCI * ((1170 * (TVD – 249)) + (3120 * (TVD - 2000)) + (Y * 800 * TLL) +(0.6 * TVDa * TPPe)) = 1.0 * ((1170 * (4724 – 249)) + (3120 * (4724 – 2000) + (1.00 * 800 * 1486) + (0.6 * 4724 * 2412.5)) = 5,235,750 + 8,498,880 + 1,188,800 + 6,837,990 = $21,761,420
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For the purpose of C* calculation re-entry:
a change to TVD, TLL or TPPe
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activity is subject to MRF and a C* is calculated based on that activity only
C* is drawn down completely
time of the incremental activity
ARF
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royalty under the ARF royalty regime
C*
switches to MRF royalty regime until C* is drawn down to 0
royalty for all products
down to 0
bore will revert back to ARF royalty regime
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a flat royalty rate of 5% under the MRF regime
receive an incremental C*
down to 0
the Post-C* rates
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Scenario: A single leg horizontal well is lengthened in 2017 TLLi = New TLL – Prior TLL = 2183 – 1247 = 936 C*= ACCI * (1000 * TLLi) = 1.00 * (1000 * 936) = $936,000
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Prior to activity Post activity TVD 1447m 1447m TLL 1247m 2183m TPP 947t 947t
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Scenario: A multi leg horizontal well is re-fractured in 2017 with coated sand.
TVDp = average TVD of all events in the well bore where proppant is placed = Average (850 + 1238) = 1044m
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2008 2017 Event TVD TLL TPP TVD TLL TPP 00 671m 1110m 312t 671m 1110m 02 850m 1121m 451t 850m 1121m 621t 03 1238m 1201m 241t 1238m 1201m 924t 04 1239m 1052m 642t 1239m 1052m
TVDp = average TVD of all events in the well bore where proppant is placed = Average (850 + 1238) = 1044m TPPe = (621 + 924) * 1.5 = 1545 * 1.5 = 2317.5t C* = ACCI * (1.5 * (0.6 * TVDp * TPPe) + 150,000) = 1.0 * (1.5 * (0.6 * 1044 * 2317.5) + 150,000) = $2,327,523
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Scenario: A single leg horizontal well that was spud in 2010 has been re-entered in 2017. Below are the before and after characteristics of the well. TPP is sand
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2010 Attributes 2017 Attributes Event TVD TLL TPP MD TVD TLL TPP MD 00 671m 1110m 0t 1819m 671m 1110m 0t 1819m 02 850m 1121m 621t 2168m
Steps to calculate the C* incremental 1. Calculate the C*original
attributes
2. Calculate the C*new
attributes
3. Calculate the C*incremental
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Step 1 - Calculate the Y Factor with the 2010 attributes Y = 1.39 – (0.04 * (TMD/TVDa)) = 1.39 – (0.04 * (1819/671)) = 1.28 (1.00) Step 2 - Calculate the Proppant Equivalency with the 2010 attributes = 0 Step 3 - Calculate the C* with the 2010 attributes C* = ACCI * ((1170 * (TVD – 249)) + (Y * 800 * TLL) + (0.6 * TVDa * TPPe)) = 1.0 * ((1170 * (671– 249)) + (1.00* 800 * 1110) + (0.6 * 671 * 0)) = 1.0 * (493,740 + 888,000 + 0) = $1,381,740
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Step 1 - Calculate the Y Factor with the 2017 attributes
Y = 1.39 – (0.04 * (TMD/TVDa)) = 1.39 – (0.04 * (3147/760.5)) = 1.22 (1.00) Step 2 - Calculate the Proppant Equivalency with the 2017 attributes = 621 * 1 = 621 Step 3 - Calculate the C* with the 2017 attributes C* = ACCI * ((1170 * (TVD – 249)) + (Y * 800 * TLL) + (0.6 * TVDa * TPPe)) = 1.0 * ((1170 * (850– 249)) + (1.00* 800 * 2231) + (0.6 * 760.5* 621)) = 1.0 * (703,170 + 1,784,800 + 283,362.30) = $2,771,332.30
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Alberta Energy determines/calculates:
follow)
allocations and oil production
report will be available on Petrinex
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is all production from the well, for all months
production, including:
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Conventional oil Wellhead production Condensate Natural gas – ISC (methane, ethane, …) Allocated volumes Natural gas by-products – liquids Mix and Spec (propane, butanes and pentanes plus) Sulphur
Product Wellhead production Allocated volumes Par Price Calculated Revenue Light Oil 100 250.00 25,000.00 Natural Gas
(methane, ethane,…)
50 2.10 105.00 Propane Mix 15 155.00 2,325.00 Propane Spec 12 165.00 1,980.00 TOTAL REVENUE 29,410.00
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production and raw gas production from the well
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Product Wellhead Production Raw Gas Production GEV 103m3 OEV m3 Conventional Oil 125.0 m3
(=125.0 * 1.7811)
125.0 Natural Gas
90.0 50.5
(=90.0 / 1.7811)
TOTAL 312.6 175.5
– Minimum: 5% – Maximum: 36%
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Par Price (PP) ($ / GJ) Rp% PP ≤ $2.40 / GJ 5% $2.40 / GJ < PP ≤ $3.00 / GJ = [(PP – 2.40) * 0.06000 + 0.05000] * 100 $3.00 / GJ < PP ≤ $6.75 / GJ = [(PP – 3.00) * 0.04250 + 0.08600] * 100 PP > $6.75 / GJ = [(PP – 6.75) * 0.02250 + 0.24538] * 100 Maximum 36% Quantity (Q) (103m3 equivalent / month) Rq% Q ≥ 345.5 0% Q < 345.5 [(Q – 345.5) * 0.0004937] * 100
– ISC – Liquids (mix or spec)
production
– Propane mix PP used for mix and ISC Rp – Propane spec PP used for spec Rp
– Minimum: 5% – Maximum: 36%
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Mix PP Spec PP Spec Rp Mix Rp ISC Rp
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Par Price (PP) ($ / m3) Rp% PP ≤ $88.10 / m3 10% $88.10 / m3 < PP ≤ $143.16 / m3 = [(PP – 88.10) * 0.00202 + 0.10000] * 100 $143.16 / m3 < PP ≤ $253.28 / m3 = [(PP – 143.16) * 0.00111 + 0.21122] * 100 PP > $253.28 / m3 = [(PP – 253.28) * 0.00059 + 0.33347] * 100 Maximum 36% Quantity (Q) (m3 equivalent / month) Rq% Q ≥ 194.0 0% Q < 194.0 = [(Q – 194.0) * 0.001350] * 100
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– ISC – Liquids (mix or spec)
production
– Butanes mix PP used for mix and ISC Rp – Butanes spec PP used for spec Rp
– Minimum: 5% – Maximum: 36%
Mix PP Spec PP Spec Rp Mix Rp ISC Rp
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Par Price (PP) ($ / m3) Rp% PP ≤ $176.19 / m3 10% $176.19 / m3 < PP ≤ $286.31 / m3 = [(PP – 176.19) * 0.00101 + 0.10000] *100 $286.31 / m3 < PP ≤ $506.55 / m3 = [(PP – 286.31) * 0.00055 + 0.21122] *100 PP > $506.55 / m3 = [(PP – 506.55) * 0.00031 + 0.33235] *100 Maximum 36% Quantity (Q) (m3 equivalent / month) Rq% Q ≥ 194.0 0% Q < 194.0 = [(Q – 194.0) * 0.001350] * 100
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Heavy Rp Medium Rp Light Rp Ultra- Heavy Rp Light PP Medium PP Heavy PP Ultra- Heavy PP
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Mix PP Spec PP Spec Rp Mix Rp ISC Rp Cond Rp
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Par Price (PP) ($ / m3) Rp% PP ≤ $251.70 / m3 10% $251.70 / m3 < PP ≤ $409.02 / m3 = [(PP – 251.70) * 0.00071 + 0.10000] *100 $409.02 / m3 < PP ≤ $723.64 / m3 = [(PP – 409.02) * 0.00039 + 0.21170] *100 PP > $723.64 / m3 = [(PP – 723.64) * 0.00020 + 0.33440 ] *100 Maximum 40% Quantity (Q) (m3 equivalent / month) Rq% Q ≥ 194.0 0% Q < 194.0 = [(Q – 194.0) * 0.001350] * 100
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Sample Drilling Costs Included Costs Excluded Costs
provided, including:
supervision
centralizers
Drilling AFE(s), including:
maintenance
drilling and JV charges)
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Sample Completion / Recompletion Costs Included Costs Excluded Costs
Recompletion AFE(s) provided, including:
Downhole tools
engineering
Completion/Recompletion AFE(s), including:
category
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AFEs:
may be reported as soon as AFEs are available.
Actual costs:
amounts
31, 2017
2018 – applicable for 2019
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high risk, high cost wells in relatively undeveloped areas
double original C*
approved ERP, will not be allowed to form part of an Oil Sands Project
mineral rights (freehold land & undisposed excluded)
the project’s total program benefits
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Distance from Project Area Greatest Distance from Nearby Sections in Project Area Project Evaluation Boundary Project Area
2 sections 4 sections PEB set at half the greatest distance between parts of non-contiguous Project Area; X = 4/2 or 2
Distance from Project Area Greatest Distance from Nearby Sections in Project Area Project Evaluation Boundary Project Area
PEB set at half the greatest distance between parts of non-contiguous Project Area; X = 4/2 or 2
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receive benefits
within the project benefit period
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79 Column 1 Project Activity Level Column 2 Project Benefit Period (Years) Column 3 Elapsed Time (Years) Column 4 C* Multiplier less than 5% 10 0-4 2.00 5-8 1.75 9-10 1.50 greater than or equal to 5% and less than 6% 9 0-3 2.00 4-7 1.75 8-9 1.50 greater than or equal to 6% and less than 7% 8 0-2 2.00 3-6 1.75 7-8 1.50 greater than or equal to 7% and less than 8% 7 0-1 2.00 2-5 1.75 6-7 1.50 greater than or equal to 8% and less than 9% 6 0-4 1.75 5-6 1.50 greater than or equal to 9% and less than or equal to 10% 5 0-3 1.75 4-5 1.50 greater than 10% N/A N/A
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recovery projects in legacy fields
recognized injection methods
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EORP:
select tertiary enhanced recovery methods
royalty rate to wells for a prescribed benefit period EHRP:
hydrocarbons (crude oil, natural gas and liquids)
include additional enhanced recovery methods
rate to wells for a prescribed benefit period
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application submitted to the AER on or after October 23, 2016
definition of either secondary or tertiary recovery
produced under the base recovery scheme for that pool
recovery scheme
scheme as determined by a technical/economic review
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approved schemes: – Secondary recovery: the benefit period will be determined on a case by case basis – Tertiary recovery: benefit period will be based on the scheme’s tertiary recovery factor (T-factor) as determined by Alberta Energy, and a benefit schedule
– Secondary Recovery: The benefit period start date will be determined on a case by case basis in conjunction with Alberta Energy and the operator – Tertiary Recovery: After material is first injected, operators will have up to 36 months to begin their benefit period
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schemes may submit an application for EHRP if: – The amendment involves a change in injection material or recovery technique; and/or – An expansion outside the scheme area that includes a new injection pattern (i.e. at least one producer and one injector well)
a new injection pattern will be treated as a separate scheme and administered under EHRP
EHRP must still meet all the eligibility criteria that applies to applications for new schemes
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