Chapter 1 - Introduction to Modern Production Data Analysis

1.01 Introduction to Modern Production Data Analysis (21 min.)

Chapter 2 - Fundamentals of Rate Transient Analysis

2.01 Pressure Transient Analysis Fundamentals (27 min.) Quiz: 2.01 Pressure Transient Analysis Fundamentals
2.02 Flow Regimes (13 min.) Quiz: 2.02 Flow Regimes
2.03 Region of Investigation (10 min.) Quiz: 2.03 Region of Investigation
2.04 RTA 101 - The Conceptual Production Decline Curve (19 min.) Quiz: 2.04 RTA 101 - The Conceptual Production Decline Curve
2.05 Flowing Material Balance 1 - Single Phase Oil (22 min.) Quiz: 2.05 Flowing Material Balance 1 - Single Phase Oil
2.05.a Multiphase Flowing Material Balance (38 min.)
2.05.b Conservation of Mass and Pseudo Pressure Derivation (31 min.)
2.05.c Pseudo Pressure Calculations & Saturation Pressure Relationship Part I (21 min.)
2.05.d Pseudo Pressure Calculations & Saturation Pressure Relationship Part II (29 min.)
2.05.e Multiphase Material Balance Equation (33 min.)
2.06 Fluid Flow Solutions as Decline Equations (11 min.) Quiz: 2.06 Fluid Flow Solutions as Decline Equations
2.07 Type Curves (10 min.) Quiz: 2.07 Type Curves
2.08 Principle of Superposition (30 min.) Quiz: 2.08 Principle of Superposition
2.09.a Managing Pressure Dependent Rock and Fluid Properties - Gas Properties (13 min.)
2.09.b Managing Pressure Dependent Rock and Fluid Properties – Pseudo Pressure (10 min.)
2.09.c Managing Pressure Dependent Rock and Fluid Properties - Pseudo-Time (15 min.)
2.09.d Managing Pressure Dependent Rock and Fluid Properties - Advanced Formulations (7 min.) Quiz: 2.09.d Managing Pressure Dependent Rock and Fluid Properties - Advanced Formulations
2.10 The Flowing Material Balance II – Single Phase Gas (8 min.) Quiz: 2.10 The Flowing Material Balance II – Single Phase Gas
2.11 Modeling and Forecasting (25 min.) Quiz: 2.11 Modeling and Forecasting

Chapter 3 - Analyzing Low Permeability, Fractured Reservoirs

3.01 Introduction to Unconventional Resources (32 min.) Quiz: 3.01 Introduction to Unconventional Resources
3.02 Permeability, Surface Area and Stimulated Reservoir Volume (20 min.) Sample Lesson Quiz: 3.02 Permeability, Surface Area and Stimulated Reservoir Volume
3.03 Simple RTA Methods for Unconventional Reservoirs (17 min.) Quiz: 3.03 Simple RTA Methods for Unconventional Reservoirs
3.04 Type Curve Analysis for Unconventional Reservoirs (11 min.)
3.05 Stress Dependent Permeability (12 min.)
3.06 Flowing Material Balance III - Multiphase Flow (18 min.)
3.07 Common RTA Models for Unconventional Reservoirs (25 min.)

Chapter 4 - Probabilistic Rate Transient Analysis

4.01 Introduction (25 min.)
4.02 Probabilistic Type Curves I- Empirical Type Curves (31 min.)
4.03 Probabilistic Type Curves II- Model-based Type Curves (18 min.)
4.04 Probabilistic Modeling I- Monte Carlo Simulation (15 min.)
4.05 Sampling the Parameter Space (40 min.)
4.06 Probabilistic Modeling II - Probabilistic History Matching (24 min.)

Chapter 5 - RTA Case Studies

5.01 Dry Gas - Marcellus Example (26 min.) Quiz: 5.01 Dry Gas - Marcellus Example
5.02 Gas Condensate - Montney Example (13 min.) Quiz: 5.02 Gas Condensate - Montney Example
5.03 Black Oil - Bakken Example (19 min.) Quiz: 5.03 Black Oil - Bakken Example
5.04a Volatile Oil - Eagle Ford Example Part I (18 min.)
5.04b Volatile Oil - Eagle Ford Example Part II (25 min.)
5.05a Stress Sensitive Reservoirs - Haynesville Example Part I (11 min.)
5.05b Stress Sensitive Reservoirs - Haynesville Example Part II (17 min.)

Rate Transient Analysis (RTA) / Chapter 3 - Analyzing Low Permeability, Fractured Reservoirs

Quiz 3.02 Permeability, Surface Area and Stimulated Reservoir Volume

In order to assess your understanding of the lesson materials, please select the most appropriate answer for each of the multiple choice questions below.

Question 1/5

Suppose you wanted to obtain a stabilized production rate from a single planar fracture in a 0.001 md reservoir that is identical to that of a vertical unfractured well producing from a 1 md reservoir. Both reservoirs are to have a drainage area of 160 acres. How long would the fracture have to be (from sandface to tip) to achieve this?

A
1,200 feet
B
120 feet
C
120,000 feet
D
12,000 feet

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