FLAC3D Modeling • Introduction
Fields of Application
FLAC (FLAC2D and FLAC3D) was developed primarily for geotechnical engineering applications. [CS: ??? what to do, what to do…] contains a bibliography of publications on the application of |flac3d| to geotechnical problems in the fields of mining, underground engineering, rock mechanics and research.
Some possible applications of FLAC are noted below.
Area  | 
Project Type  | 
Problems Solved  | 
|---|---|---|
CIVIL  | 
Tunneling  | 
Factor of safety  | 
Shafts  | 
Probability of failure  | 
|
Caverns  | 
Ground stability and improvement  | 
|
Rockfill and concrete dams  | 
Tunnel support and design  | 
|
Excavations  | 
Dynamic analysis  | 
|
Slopes  | 
Evaluation of liquefaction potential  | 
|
Earth retaining structures  | 
Groundwater flow and dewatering  | 
|
Harbor structures  | 
Heat transfer  | 
|
Foundations  | 
Back analysis and observational method  | 
|
Embankments  | 
Ground freezing  | 
|
Dewatering  | 
Settlements, consolidation, and creep  | 
|
Pavement and subgrade  | 
Coupled thermal-mechanical-flow  | 
|
Waste disposal  | 
Factor of safety  | 
|
MINING  | 
Open pit  | 
Excavation stability  | 
Underground stope  | 
Infrastructure design  | 
|
Room-and-pillar  | 
Slope stability  | 
|
Longwall  | 
Subsidence  | 
|
Caving  | 
Dewatering  | 
|
Solution mining  | 
Blasting efficiency  | 
|
Shafts and passes  | 
Cavability  | 
|
Recovery and dilution  | 
||
Backfill  | 
||
Tunneling and mine construction  | 
||
Tailings stability  | 
||
Tailings dams design and stability  | 
||
Pillar sizing / spacing  | 
||
Ground freezing  | 
||
Excavation damage and disturbed zones  | 
||
Ground control / remediation  | 
||
Tunnel ground reaction curves / longitudinal profiles  | 
||
OIL and GAS  | 
Conventional  | 
Hydraulic fracturing and injection  | 
Unconventional  | 
Well drilling and completions  | 
|
Well completions  | 
Borehole breakout  | 
|
Enhanced recovery  | 
Sanding  | 
|
Fluid injection  | 
Induced seismicity and microseismics  | 
|
Wellbore optimization and stability  | 
||
Enhanced oil recovery  | 
||
Casing failure analysis  | 
||
Cap rock integrity  | 
||
Coupled hydro-mechanical-thermal analysis  | 
||
Fault stability  | 
||
Compaction and subsidence  | 
||
Reservoir scale modeling  | 
||
Fault movement and Integrity  | 
||
Salt cavern formation, stability, and gas storage  | 
||
Deep well injection of produced water  | 
||
POWER GENERATION  | 
Engineered geothermal systems  | 
Factor of safety  | 
Hydrothermal  | 
Excavation damage and disturbed zones  | 
|
Nuclear reactor plants  | 
Foundations  | 
|
Nuclear waste isolation  | 
Engineered barrier evaluation  | 
|
Wind energy turbines  | 
Dynamic response to earthquakes  | 
|
Hydroelectric dams  | 
Groundwater infiltration  | 
|
Hydroelectric power houses  | 
Deep well injection of blowdown waters  | 
|
Thermal plants  | 
Rock characterization  | 
|
CO2 sequestration  | 
Geophysical investigations  | 
|
Non-destructive examinations  | 
||
Microseismic and acoustic emission  | 
||
Cap rock integrity  | 
||
Site feasibility and suitability  | 
||
In-situ and laboratory testing  | 
||
Hydro-mechanical-thermal-chemical coupled effect  | 
||
MANUFACTURING  | 
Equipment design  | 
High-deformation extrusions  | 
Process design  | 
High-deformation punches  | 
|
Artificial diamond manufacturing  | 
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