$XSite 300 hydraulic fracturing simulation Crack simulation$

XSite 300 hydraulic fracturing simulation Crack simulation

Name: XSite 300 hydraulic fracturing simulation Crack simulation - cracked download free made easy,full crack descargar
SKU: 2510242
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XSite 300, crack license XSite 300

XSite 300 hydraulic fracturing simulation Crack simulation, how to download XSite 300 crack license working tested.Elevate your geotechnical and hydrogeological problem-solving with XSite. Essential for hydraulic fracturing simulations of your energy or mining operation.

SKU: 2510242 Categories: Simulation, engineering softwares, Uncategorized, unlimited find

Description

XSite 300 hydraulic fracturing simulation Crack simulation

XSite is a special-purpose software package designed to meet the needs of hydraulic fracturing simulation. Main features available with XSite include:

$XSite 300 hydraulic fracturing simulation Crack simulation$

No assumptions regarding the fracture shape or trajectory
Fracture propagation in inhomogeneous and naturally fractured rock masses
Interactions between hydraulic fractures, joints, and between stages and wells (including the stress shadow effect and hydraulic connectivity) are accounted for
In situ stresses may be specified
Arbitrary number of wellbores and injection points
Synthetic microseismicity is generated as the fractures slip or propagate, providing a method for model calibration with field observations
Non-steady fluid flow within joints and the intact rock
Proppant transport and placement
Thermal analysis
- Heat conduction (and thermo-mechanical effects) in the rock and heat exchange with the fluid in fractures can be simulated
- Approximated heat advection by injected fluid
Easy setup of models for multi-stage simulation

The model shown below simulates open-hole, sliding-sleeve hydraulic stimulation along the horizontal section of the borehole. Five stages are included in the model. The S_h,min in 50-m high reservoir is 30 MPa. The verical stress and S_H_,ma_xare 42 MPa. The stress barrier between the reservoir and underburden and overburden is approximately 2 MPa. The horizontal segment of the borehole is oriented in the direction of Sh,min. For the sake of simplicity, the DFN was not explicitly represented in this model. For each stage, slick water was injected for 33 minutes at a rate of 11 m³/min.

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Supplemental Files

The following DLL library file must be installed before running XSite 3.0 for the first time.

msmpisetup.exe (5.9 MB, Stand-alone, redistributable and SDK installers for Microsoft MPI)

Known Issues

The maximum proppant concentration is still hardwired to 0.7. It should probably increased to 1.0
Need to take a closer look at proppant stress when the new conductivity curves (indexed by proppant concentration and stress) are used.
Perforated tunnels:
- Simplified logic cluster volume calculation needs to take in consideration that the part of the perf. tunnel cylinder is already taken into consideration by the borehole volume;
- Generalize the logic for viscosity transition allowing switch from power-law fluid and include power-law fluid and fluid transition in the simplified logic; and
- resetClusterOnNodes is called after a stage is inactivated; it probably should not to avoid premature connection of the active fractures with those connected with inactive clusters.
Export grid function is limited to infinite horizontal plane seams. Will added ability to specify export extent based on top and lower seam for minimum and maximum Z coordinate and fractures location for X and Y coordinates.

XSite 3.00 64-bit Update

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Hydraulic Fracture Simulation of 3D Fracture Networks

Elevate your geotechnical and hydrogeological problem-solving with XSite. Essential for hydraulic fracturing simulations of your energy or mining operation. Optimize solutions now with XSite!

Why Choose XSite?

Explore XSite‘s comprehensive features and user-friendly interface. Unlock powerful computing capabilities, including the ability to run two models simultaneously. Discover why XSite is the ideal choice:

Applications

Reservoir-scale, multi-well, multi-stage field stimulation by multiple fracture propagation with application to both petroleum, Engineered Geothermal System (EGS), and rock mass preconditioning (mining industry) operations
Simulation of fracture propagation on reservoir scales
Near-wellbore models to simulate fracture initiation
Proppant transport and placement
Prediction of microseismicity
Rock mass preconditioning for mining operations

Analysis

Mechanical (statics, small-strain)
Fluid Flow
Microseismics
Thermal analysis
Proppant
Lattice Method
Synthetic Rock Mass
Thermo-Hydro-Mechanical coupling
Hydraulic fracturing
Heat conduction, advection, and convective heat exchange

Ease of Use

Streamlined modeling and simulation workflows
Automated processes for efficient modeling
GUI that allows visualization of model setup and results
Built-in logic for proppant transport and fracture interaction
User-friendly settings for simulations
Integrated borehole flow calculations
Automated tracking and recording of synthetic microseismicity
Easy and fast model discretization
Easy and automated setup of multistage stimulation from multiple wells
Capability to reuse model components (e.g., pumping schedule, well geometry, stage and cluster design)

Speed

High-performance numerical simulation
Fast and accurate hydraulic fracturing modeling
Efficient multi-threaded processing for quicker results
Implicit scheme for fluid flow simulation
Rapid resolution of hydraulic fracture interactions
Speedy modeling of multiple wellbores, stages, and clusters
Optimized simulations of THM coupled processes including sub-stepping and multistepping
Fast scheme for simulation of loosely coupled THM processes during long-term fluid circulation
Fast simplified logic for simulation of hydraulic fracture propagation in the toughness-dominated regime
Quick calculation of proppant transport and fracture interaction
Swift tracking and recording of synthetic microseismicity

Powerful Capabilities

Three-dimensional hydraulic fracturing simulation on reservoir scales
Hydraulic fracturing of naturally fractured reservoirs
Simulates reservoir stimulation due to hydraulic fracturing and hydro-shearing (i.e., slip on pre-existing fractures)
Utilizes Synthetic Rock Mass (SRM) and Lattice methods
Models multiple wellbores with multiple stages and clusters
Simulates three-dimensional fracture initiation from open-hole completions and perforation tunnels
Resolves hydraulic fracture interactions, including those in naturally fractured reservoirs
Incorporates deterministically or stochastically generated discrete fracture networks (DFNs)
Conducts fully coupled thermo-hydro-mechanical simulations
Heat transport models include heat conduction, advection, and convective heat exchange
Simulates fluid flow within fracture networks and matrix flow within the intact rock
Simulates the effects of thermally induced stress changes during long-term circulation on permeability change
Includes proppant transport and placement logic
Accounts for proppant’s impact on fracture closure and conductivity
Generates synthetic microseismicity due to fracture propagation and slip on pre-existing fractures

Flexibility

Versatile three-dimensional hydraulic fracturing simulation
Adaptable to various wellbore configurations, including open-hole completions and perforation tunnels
Accommodates hydraulic fracture scenarios in different reservoirs (conventional and unconventional), including those in naturally fractured reservoirs
Simulation of hydraulic fracturing in different regimes (viscosity-dominated, toughness-dominated, leakoff-dominated) or any transitional regime
Supports deterministic or stochastic discrete fracture network (DFN) generation
Customizable thermo-hydro-mechanical simulations
Flexible leakoff modeling including matrix flow and Carter leakoff
Adjustable proppant transport and placement options
Adaptable borehole flow calculations for various cluster configurations
Tailorable tracking and recording of synthetic microseismicity
Recorded microseismicity can be imported and compared with microseismicity predicted by the model
Upscales and exports results (e.g., permeability and porosity fields) to be used by reservoir simulators