petromod introduction

27
Application to 1-D Basin Modeling PetroMod Schlumberger

Upload: fahmi-bajry

Post on 25-Oct-2015

345 views

Category:

Documents


13 download

TRANSCRIPT

Page 1: Petromod Introduction

Application to 1-D Basin Modeling

PetroModSchlumberger

Page 2: Petromod Introduction

• Simulation of basin evolution: tracking hydrocarbon generation and expulsion

• Estimate volume hydrocarbon entrapment, flow and accumulation

• Spatial scale: 10s to 100s of Kms.

• Time scale: 100s to Mas

• Dynamic reservoir geometry

• 1D model: examines burial history at a point location.

• 2-D model: either in map or cross section, can be used to reconstruct oil and gas generation, migration and accumulation along a cross section.

• 3-D model: reconstructs petroleum systems at reservoir and basin scales and has the ability to display the output in 1D, 2D or 3D, and through time

• Al-Hajeri and Al Saeed et al. (2009)

PurposeBasin and Petroleum System Modeling

Page 3: Petromod Introduction

Create New Project

Page 4: Petromod Introduction

New model folders

Page 5: Petromod Introduction

New model folders

Page 6: Petromod Introduction

2-D and 3-D Petromod Tools

Page 7: Petromod Introduction

PetroMod 1-D

Page 8: Petromod Introduction

Create new model

Page 9: Petromod Introduction

Conceptual Model Building Steps

1. Structural and Stratigraphic Model

2. Present day petroleum system analysis

•Al-Hajeri and Al Saeed et al. (2009)

Page 10: Petromod Introduction

Generic EventsIn

put

Out

put

•Al-Hajeri and Al Saeed et al. (2009)

Page 11: Petromod Introduction

Materials

Main Input• Sediment deposition (Stratigraphy)• Erosion• Lithology• Petroleum System Elements (PSE)• Total Organic Carbon (TOC)• Kinetics • Hydrogen Index

Boundary Conditions• Paleo-Water Depth (PWD)• Sediment Water Interface Temperature (SWI-Temperature)• Heat Flow

• Al-Hajeri and Al Saeed et al. (2009)

Basin and Petroleum System Modeling

Page 12: Petromod Introduction

Main Input

TOC: Quantity of organic carbon in source rock, both kerogen and bitumen.

HI: (S2/TOC) x 100An estimate of hydrogen richness in source rock. It help estimating maturity if kerogen content is known. HI-OI plot can give a rough assessment of petroleum generative potential of a source rock

http://www.dcnr.state.pa.us/topogeo/econresource/oilandgas/marcellus/sourcerock_index/sourcerock_quanity/index.htm

Page 13: Petromod Introduction

Main Input

Page 14: Petromod Introduction

Main Input

Page 15: Petromod Introduction

Kinetics

Page 16: Petromod Introduction

Reaction tabs

Page 17: Petromod Introduction

Well Assignment

Page 18: Petromod Introduction

Well Assignment

Page 19: Petromod Introduction

• Paleo-Water Depth (PWD) is an important parameter which controls the rate of sedimentation, erosion, and the volume of water controls pressure load on top of a system.

• Temperature controls transformation of kerogen into petroleum

• Paleo-Heat flow

• Sediment-Water Interface Temperature (SWIT)

Boundary Conditions

•Al-Hajeri and Al Saeed et al. (2009)

Page 20: Petromod Introduction

Boundary Conditions McKenzie Model for Heat Flow during Rifting

Page 21: Petromod Introduction

Boundary Conditions: Heat flow (McKenzie Model)

Page 22: Petromod Introduction

Petroleum System Element Edit

Page 23: Petromod Introduction

Burial History Preview

• Checking Geometric evolution of the model• This is not simulated data (No compaction added)

Page 24: Petromod Introduction

Simulation

Page 25: Petromod Introduction

Results: Time Plots

Page 26: Petromod Introduction

Results: Burial History Plot with HC Potential Overlay

Page 27: Petromod Introduction

Results: Burial History Plot with Paleo-Temp Overlay