KAPPA_5.10_Workstation_download

KAPPA_5.10_Workstation_download

Permanent Downhole Gauges (PDG) are a remarkable source of information of both long term production data and the capture of occasional buildups that may be described as ‘free well tests’. Data are acquired at high frequency and over a long duration. The down side is the large number of data points gathered, which can amount to hundreds of millions per sensor which is far beyond the processing capability of today’s fastest PC. There are a number of challenges: storing and accessing the raw data, filtering, transferring this to the relevant analysis module and finally sharing both filtered data and analyses.

KAPPA Server is a client-server solution for PDG reservoir surveillance that addresses these issues in a shared environment. It permanently mirrors raw data from any data historian, reduces the number of points with wavelet-based filtering, stores and shares the filtered data. Filtered data can be exported to third party databases.

High frequency data (PDG)

Time-lapse data with measures recorded every 1 – 30 second intervals can be considered as high frequency data (pressure, temperature, flowmeter rates) and usually are stored in the company’s data historian. Using a preconfigured data link an user can browse the list of available tags (gauges, data sets) in the historian and select the required ones to be mirrored into KAPPA Server.

Mirroring involves copying the data tag from the historian into a gauge item in KAPPA Server. Once this is done the gauge item is kept updated by an internal process that checks for additional data and mirrors them.  

Midland.Valley.move 2016.1.download

Midland Valley move 2016.1

Schlumberger_Petrel_2013_crack

Schlumberger_Petrel_2013_crack Advanced Science Addresses Key Technical Challenges The Petrel 2013 platform delivers enhanced integration to address key challenges, for example accurate delineation of subsurface features in pre- and sub-salt reservoirs. The release brings improved salt interpretation workflows, augmented seismic imaging through pre-stack wide azimuth analysis, and improved links with Omega* seismic data processing software. The introduction of a volume-based modeling approach supports precise representation of geological complexity—to more accurately predict hydrocarbon accumulations. Geomechanical reconstruction validates interpretations in complex depositional environments. Further, geoscientists can now model 1D petroleum systems to determine charge maturity and risk. The Petrel platform leverages advanced Schlumberger numerical simulators, which now include 3D geomechanical modeling of subsurface stresses, salt tectonics and wellbore stability, providing efficient 3D preproduction geomechanics and 4D modeling of producing fields. Reservoir engineering capabilities support complex well modeling to keep pace with completion design evolution. New production-analytics capabilities enable well performance analysis to diagnose production events and trends. Customer Test Results Petrel 2013 introduces a step-change in software beta test methodology. The Petrel platform architecture now tracks and audits beta testing, so that each of the broad range of capabilities is consistently and comprehensively tested. More than 30 oil and gas companies across the spectrum of majors, independents and national oil companies, as well as internal resources participated, culminating in more than 20 man-years of testing. Powerful Productivity and Collaboration The Studio* environment for Petrel allows E&P experts to find all relevant data, collaborate with peers and share best practices in the context of their workflow. Innovative indexing technology provides access to structured and unstructured data in Studio databases, as well as third-party applications and data sources.

powerbench v3.4.1_tutorial

Fugro-Jason announced today the availability of PowerBench Geology for geological interpretation. This addition to the PowerBench suite was acquired from a large independent oil company that had invested more than 20 years in developing the underlying technology. PowerBench is a Windows®-based application suite for Geology, Geophysics, Petrophysics, and Engineering. ''Geological interpretation is fundamental to providing a single consistent model of the earth,'' said Eric Adams, Managing Director of Fugro-Jason. ''Through this strategic acquisition we were able to add time-tested capability to PowerBench and make that capability available to our customers very rapidly.'' PowerBench Geology enables unified handling of subsurface geology, well bore equipment and production data. It features an integrated base map and interpretation canvas that handles tens of thousands of wells quickly and efficiently, and a geologic cross section builder that features structural and stratigraphic cross section interpretation. The PowerBench suite encompasses the E&P workflow and includes petrophysical interpretation, seismic and rock property volume interpretation, geologic interpretation, mapping, framework and 3D property modeling, and streamline simulation.

DNV-Sesam-2011-tutorials

Sesam GeniE is a tool for designing and analyzing offshore and maritime structures made of beams and plates. Modelling, analysis and results processing are performed in the same graphical user interface. The use of concept technology makes Sesam GeniE highly efficient for integrating stability, loading, strength assessment and CAD exchange. All data are persistent enabling the engineers to do efficient iterative re-design of a structure. Sesam GeniE for fixed structures The analysis – hydrodynamic as well as strength calculations – and evaluation of results are done within GeniE. GeniE is built for frequent changes in both structural and equipment layout – any modification performed on a concept level will give an automatic updated and consistent analysis model.

For fixed platforms, GeniE can perform static and dynamic linear analysis for structures subjected to wave, wind, current and the equipment layout. It is also possible to include the effects from non-linear pile/soil behaviour. Code compliance of beams may be performed according to API/AISC, API/LRFD, Norsok/Eurocode or ISO (19902). The results may be reported graphically or by using standard report layouts that can be customized (supporting MS Office). Similarly, for plated structures (stiffened as well as un-stiffened) they may be checked against codes like DNV (RP C201.1) and API(2U). Sesam HydroD is a tool for hydrostatic and hydrodynamic analysis. By integrating these tasks significant cost savings may be achieved in the engineering phase since the same panel model may be used by one tool. Sesam HydroD will perform compliance checks against statutory rules for stability including the importance of integrity of the deck tanks. Floating positions may be determined as a result of actual mass and buoyancy or from an automatic compartment filling to satisfy specified position. Hydrodynamic analysis The hydrodynamic analysis may be performed using the actual floating position – and independent of the panel model – to determine worst loading conditions to be used in structural strength analysis. These analyses are normally performed in the frequency domain, but it is also possible to do it in time domain (Linear as well as non-linear). The loads (pressure and accelerations) are automatically used by the structural analysis. The response and loads may be graphically assessed in animations. Sesam DeepC is a tool for mooring and riser design as well marine operations of offshore floating structures. It will perform mooring analysis separately or when including the coupled effects from risers and vessels. Furthermore, Sesam DeepC may be used for riser design where the risers are analyzed separately or when considering coupling effects. Marine operations may be simulated in the time domain for a study of motions and station keeping of multibody systems. For deep water installations, the riser and mooring systems greatly influence the motions of the floater. The floater and slender structures constitute an integrated dynamic system responding to the environmental loading. Because coupling effects are consistently treated, there is no need for the engineers to make assumptions about the damping level (updated for each time step) which is crucial in a non-linear analysis accounting for slender structure restoring, damping and inertia forces. In other words, Sesam DeepC will increase the confidence level of riser and mooring analysis.

Fugro_Jason_8.3_DOWNLOAD

Jason® brings together petrophysics, modeling and reservoir seismic inversion to solve the most compelling exploration & production challenges. Unconventional shale gas—define the best drilling and frac program Thin reservoirs—locate and tap them most effectively Complex reservoirs—unravel tuning and AVO effects to map the true geologic character of the reservoir Fugro-Jason V8.3, the leader in reservoir characterization technology for the oil and gas industry, today announced the release of version 8.3 of Jason™ reservoir characterization software. Jason™ brings the most advanced technology to the geoscientist’s desktop with new functionality particularly suited for managing assets in challenging environments such as shale oil plays and shale gas plays, thin bed reservoirs and subsalt formations. Jason addresses a wide variety of geologic settings and challenges with powerful geostatistical reservoir characterization; wavelet estimation and well to seismic ties; and 2D and 3D seismic inversion. In shale oil and shale gas plays, Jason can play an important role in building an effective hydraulic fracturing program. Significant enhancements in geostatistical reservoir characterization improve detail in areas where reservoir formations are vertically thin and difficult to detect and correlate.

Fugro-Jason’s flagship suite of integrated applications helps geoscientists find the best pay zones and visualize how the reservoir connects across the field. Adams adds, “Our mission is to provide our customers with the clearest view of their subsurface reservoir as possible. Jason software helps operators not only understand risk, but reduce it in the process.” The Jason® software suite includes solutions for Petrophysics and Rock Physics, Interpretation and Analysis, Model Building, Seismic Inversion and Geostatistical Inversion. Using these tools in an integrated fashion, you can perform Seismic to Simulation studies using highly accurate and predictive reservoir models to evaluate alternate management strategies and predict future production and ultimate recovery from your field.

GeoTeric_v2012.1_download

Interactively extract accurate, multi-layered geological expressions from your data for faster geological insight. Power-on with GeoTeric™ to bridge the gap between processing and 3D interpretation, by directly translating geophysical data into the geological expressions of shale, salt, carbonates, clastic and structure. Learn more about the technology that has powered the success of over 300 projects in conventional and unconventional reservoirs for over 100 E&P companies worldwide - and how you can reach the most informed, seismically driven decisions you've ever made. Tile group Shale Connect with high-precision localisation in clastic systems Uncover the full potential of your seismic data to identify untapped potential and extend the productive life of your field. Use GeoTeric to capture geological expressions from all available seismic data rapidly, accurately and objectively. Identify and extract geological details with high-resolution information on facies changes and reservoir heterogeneity to examine previously worked regions in greater detail and to de-risk new hydrocarbon plays. Construct more accurate geological models with interpreter-guided, data-driven 3D geometries, highlighting potential reservoirs and surrounding geological entities, leading to more realistic recovery estimation and greater confidence in well planning.

Secure sharper carbonate reservoirs definition and estimation Better understand reservoir geometry, heterogeneity and inter-connectivity for effective production from carbonate plays. Improve depositional modelling of carbonates with accurate facies classification. Identify fault corridors to assess fluid flow and production potential. Create 3D representations of dissolution features to understand extent and connectivity throughout the reservoir, significantly reducing drilling risk. GeoTeric helps you improve well planning and placement by rapidly identifying variations in fracture density that are almost impossible to recognise with conventional interpretation. Access rapid, accurate salt boundary delineation With advanced noise attenuation, GeoTeric makes sub-salt seismic events easier to map, revealing intricate geological changes that can indicate potential hydrocarbons. Quickly detect finer variations in seismic signature – invisible to the naked eye – and delineate the complex faulting often associated with salt movement more objectively than ever. Feed your salt body and structural results back into the workflow, bringing together the many insights extracted from your data, for a complete picture of geological structure and a more accurate reservoir model. Image: Processed on Netherlands TerraCubeREGRID TM data, supplied by Fugro Data Services AG.

Kappa_ Ecrin_v4.205_crack

One of the main areas of development has been unconventional resources, in particular shale gas, with additional diagnostic tools in Topaze NL, specifically adapted internal analytical models in Saphir NL and Topaze NL, and substantially enhanced numerical models in Saphir NL, Topaze NL and Rubis. Kappa_ Ecrin_v4.205 Other improvements include slug test and minifrac analysis in Saphir NL, additional analysis tools in Topaze NL, an improved Rubis sector to PTA where the dynamic state of the simulation is transferred to Saphir NL and a prediction of future IPR’s in Amethyste that is now a free add-on to other Ecrin modules. Two new additional modules, as yet non-commercial, for thermal modeling and surface networks have been included for evaluation.

Substantial work was done on the numerical model, especially for the modeling of unconventional resources. Intermediate 3D local grid refinement has been created to account for vertical flow in Topaze NL without the detail of the transient analysis grid. The gridding is not only adjusted to the flow geometry, but also to the reservoir diffusivity, providing superfine grids for extremely low permeability. Fractured horizontal wells now include limited entry fractures. For unconsolidated formations there is individual control of matrix and fracture pressure dependence. On the analytical side, Saphir NL and Topaze NL now integrate a comprehensive internal model for multiple fracture horizontal wells, including enhanced features such as a global fracture angle and composite zones. In the multilayer models, vertical crossflow can now be modeled with a leakage factor or a thin interface layer. Minifrac analysis has been added in Saphir NL. This includes G-function, square root plot and the After Closure Analysis (ACA) plot. Slug / pulse test analysis has been added, allowing the initial DST slugs to be analysed. Perrine’s method has been improved to handle multiphase analyses (Kamal et al.). Deconvolution is enhanced by adding a material balance correction (Levitan et al.). In Rubis the extraction of a sector for pressure transient analysis now sends to Saphir NL the exact dynamic state of the simulation at the time of the extraction. It is no longer necessary to create a different initial state in Saphir NL. Direct import from Geomodelers now include net-to-gross ratio, and the volume averaging interpolation method has been modified to improve the property mapping between the imported grid and the Rubis cells. Finally, unconsolidation has been extended from Saphir NL and Topaze NL to Rubis. In Topaze NL new specialized plots have been added, including the square root and power law loss ratio plots for unconventional formations. Specialized lines on the loglog plot, already in Saphir NL, are now also available in Topaze NL. New corrections and display capabilities have been added to existing specialized plots, in particular to the p/Z plots. Amethyste is now a free add-on of Saphir NL, Topaze NL, Rubis and Emeraude licenses under active maintenance according to our current price list. The main development here is the prediction of future IPR. Also new to v4.20, on an experimental basis and for evaluation purpose only, is a first version of a thermal model and a surface network. These are noncommercial. In the future they may be removed or packaged in additional Ecrin modules… Not detailed here are more than forty additional improvements, most of them coming from the requests of our user groups. Among them, the Span & Wagner EOS for pure CO2, a faster USB protection key, RAM monitoring, an XML section in the Ecrin files allowing the direct reading of the main results from third party software, preconfiguring our coming OpenServer.

Aspen-V7.3.2-download

op Reasons to Upgrade to the V7.3 Release Optimization innovations in engineering for Exploration & Production, Refining, and Chemicals industries improve capital and energy efficiency, streamline environmental compliance, and accelerate time-to-value: for imageAspen Plus®: New User Interface Aspen Plus has an updated user interface that provides easier, more intuitive navigation and streamlined workflows. Learn More for imageAspen Batch Modeler Model batch reactors and batch distillation columns in a single environment—standalone and within Aspen Plus. Learn More for imageWorld's Most Comprehensive Set of Physical Property Models and Data Leverage the world's largest physical properties database with Aspen Properties to ensure accurate and consistent results. Simulate a large range of processes out-of-the-box. Learn More online trainingDrive Productivity with Aspen Online Training New online training provides easy and convenient access to a variety of rich training content from within the software. Accelerate your learning curve and build engineering expertise faster. *Available for Aspen Plus® V7.3, Aspen HYSYS® V7.3 CP1, Aspen Basic Engineering V7.3, Aspen Economic Evaluation V7.3.2, and Aspen Exchanger Design and Rating V7.3.2. Learn More for imageAccess Models and Plant Data Quickly with Aspen Search New proprietary search engine within Aspen Plus and Aspen HYSYS helps you solve problems faster and improve enterprise-wide collaboration with rapid access to models, design cases, and other engineering resources. Learn More for imagePerform Faster, Easier Front-End Estimating Improve front-end estimating with a new detachable Excel mechanism for importing and exporting FEED data directly into Aspen Economic Evaluation products. Reduce cycle time and increase estimating efficiency. Learn More for imageImprove Design of Process Heat Exchangers Integration between Aspen EDR and Aspen HYSYS provides rigorous modeling for fired heaters and plate fin exchangers, resulting in savings in engineering man-hours, capital equipment and energy cost. Ensure design and operational compliance with the latest ASME Section VIII Div. 1 code addenda and enhance reliability with improved vibration calculations. Evaluate operation with complex fluids using new immiscible property methods, handle evaluation of plugged tubes and much more!

Paradigm Epos 4.1

Paradigm EPOS integration The eagerly awaited direct connections to Paradigm EPOS 2D and 3D seismic navigation and interpretation data lead the list of features in Petrosys 16.9. The EPOS link allows direct mapping, gridding, and import of EPOS data in Petrosys running on 64-bit Linux platforms. The Paradigm™ Epos® infrastructure and data management system underlies the entire Epos-based application suite, links the applications to a shared database, and provides a common working environment for individuals or teams across disciplines. It is based on client/server architecture, which provides a multi-user, multi-project environment for data sharing and collaborative work. Epos 4 Architecture Epos Interoperability and Data Management Infrastructure Its light and scalable architecture easily supports customers of all sizes, from a single user working on a laptop, to a team collaborating over a network, up to multiple users on a central database. The system offers cross-platform functionality, so that two users who are connected to the same network can work together, even if one is working on Windows® and the other on Linux®. The system’s interoperability capabilities enable data from other E&P software vendor companies to be linked or transferred into Epos for access by Paradigm applications. Customers leverage this to manage the transition process as they migrate hundreds of terabytes of data from their legacy system to Epos, while ensuring that projects remain active and operational at all times.

CMG-2011-CMG-Technologies-Lanncher

MG (Computer Modelling Group Ltd.) is a computer software engineering and consulting firm engaged in the development, sale and technology transfer of reservoir simulation software. CMG began as a company known for its expertise in heavy oil, and expanded its expertise into all aspects of reservoir flow modelling. Over the past 32 years, CMG has remained focused on the development and delivery of reservoir simulation technologies that assist oil and gas companies to determine reservoir capacities and maximize potential recovery. To this end, we are continually improving our market-leading line of reservoir simulation technologies to better reflect the changing needs of our users. CMG is a world-class software company traded on the TSX Stock Exchange under the symbol CMG. With over 400 oil and gas companies and consulting firms in more than 50 countries, CMG is one of the largest independent providers of reservoir simulation software in the world. CMOST is the latest product offering in the CMG software suite. It is a state-of-the-art reservoir engineering optimization tool, employing innovative experimental design, sampling and optimization techniques to efficiently determine the reservoir parameters which define the production and ultimate recovery of oil and gas fields. CMG’s Builder creates the base-case reservoir model as the first step in the process. CMOST generates simulation runs automatically from the base model, then submits and analyzes the runs that are created from a range of values for multiple reservoir parameters specified by the engineer. CMOST learns which values produce the best results enabling it to dramatically reduce the number of runs required to find the optimal solution. This is the fastest technique for an accurate history match(es) and reliable production forecasts. CMOST improves the effectiveness of each reservoir engineer by eliminating the tedious labor of individual case generation for hundreds of scenarios. It allows them to focus on the high value effort of interpretation and evaluation of results. CMOST’s power lies in modern experimental design and optimization algorithms which vary multiple parameters simultaneously to find the optimal solution – something a human cannot do. CMOST dispatches to a cluster of computers or a single computer and interprets the results of numerous runs, terminates non-physical solutions and narrows the search space rapidly to reach not just local maximums or minimums, but the ultimate best case. Solutions to reservoir models with trillions of possible combinations and permutations can often be found in fewer than 1000 runs. CMOST helps engineers create more accurate models in dramatically less time and allows asset managers to have a greater degree of confidence in the forecasts, multiplying the team’s effectiveness many fold.

Pansystem-2011-download

PanSystem® software has been the industry’s leading well-test analysis program for more than 20 years. It is a robust yet easy-to-use software tool that provides multiple options for models and analysis. These options include industry standards as well as user-defned models for additional fexibility. Ultimately, the PanSystem application provides a way to simplify complex transient well testing through detailed analysis, simulation and reporting. PanSystem software is dedicated to transient well testing, a key technical function in the oil and gas industry. A pressure transient well test has the unique capability to obtain information from within the reservoir surrounding the well and, with appropriate testing and analysis techniques, can provide a wealth of data: • Permeability of the reservoir-at-large and, in some cases, the near- wellbore region • Completion effciency, effective open interval size (over the life of the well) • Reservoir structure (boundaries, heterogeneities) • Reservoir pressure • Nature of any pressure support • Drainage area, connected pore volume, and initial hydrocarbons in place • Vertical permeability, vertical communication in layered systems • Well performance (over the life of the well) • Communication between wells • Deliverability and production forecasts Typical applications © 2010-2011 Weatherford. All rights reserved. PanSystem® Well-Test Analysis Software 3 The task of designing, executing and analyzing a well test depends on operating conditions as well as completion and reservoir type. PanSystem software analyzes a wide range of situations and asset types. • Low-pressure reservoirs, heavy oil: Wellbore fll-up and leak-off tests, steam-injection tests • Pumping wells: Acoustically derived pressures and rates • Medium oil reservoirs: Conventional drawdown and buildup tests • Gas wells: Conventional analysis using real gas pseudo-pressure, turbulent skin analysis for high-rate wells, and gas well deliverability by empirical (C-and-n) and LIT methods. (In depletion scenarios, gas properties are revised as reservoir pressure declines.) • Volatile oil/condensate reservoirs: Conventional analysis techniques or use of multiphase pseudo- pressure to model phase behavior and its effect on relative permeability (in particular, liquid dropout or gas breakout around wellbore) • Hydrothermal wells: Steam production, water injection • Gas- and water-injection wells: Injection and falloff tests, including multiregion analysis to enable mobile phase changes and temperature effects • Interference tests: Inter-well permeability and ΦCt product from type-curve analysis and/or history matching by simulation • Multilayered reservoirs: Conventional analysis or specialized testing technique (MLT) using selective fowmeter data • Varying rate tests: Rates measured on surface or with a downhole fowmeter • Permanent downhole (or surface) gauges: Special pressure decline analysis (PDA) section to analyze long-term pressure and rate records for hydrocarbons in place; deconvolution to reveal nature of the reservoir and boundary models otherwise obscured by rate changes and shut-ins • Wireline formation tests: Analysis of pre-test, pump-out, mini-DST, and vertical interference tests using dual- and packer-probe analytical models (including special LAS and DPK format data import) From large-scale reservoir characterization to monitoring of individual well performance, PanSystem’s well- test analysis provides information for many important operational decisions. • Workover: Completion effciency from skin factor and early time derivative shape; open interval length for stimulation or reperforation; fracture quality • Reservoir characterization: Horizontal permeability (from kh ); vertical permeability; boundaries and heterogeneities; gas cap/aquifer support; pressure support from a second compartment; layering for reservoir model refnement and feld-development planning • Reserves estimation: Extended production test; long- term fowing pressure record (with permanent downhole gauge); buildup testing for reservoir model refnement and feld-development planning • Production performance prediction: Single well forward prediction with material balance included for feld-development planning • Reservoir pressure decline: for feld-developmen

Paradigm-2011-EPOS-V4.1

he Paradigm 2011 release is the largest synchronized release of exploration, development and production technology in the company’s history. A result of years of research and development, the release carries the signature of innovation that the industry has come to expect from Paradigm™, with new, game-changing technologies that redefine workflows and best practices across the E&P chain. The release also expands Window® 7 platform support to Paradigm’s full interpretation suite. In addition to the introduction of a rich set of geoscience and engineering applications, this release enhances multi-disciplinary collaboration, enabled and strengthened by expanded data integration, an intuitive user interface, and a highly ergonomic design. The release introduces measurable product performance with the expanded use of multi-core (CPU and GPU) applications for seismic imaging, seismic attribute calculations, voxel interpretation and subsurface modeling. Productivity is enhanced with integration improvements and new workflows, such as interpretation with modeling, and new knowledge control and auditability solutions for multi-scenario management. Major technological advances in Paradigm 2011 include: • New “validation of interpretation data while modeling” workflows using true 3D paleo-flattening • Pre-stack and post-stack data in a common interpretation canvas • Multi-attribute interpretation with multi-well correlations and multi-well synthetics • Innovative multi-attribute volume, section and map blending • On-the-fly time-to-depth corrections from multiple velocity sources over multiple surveys • Crossplot and transparent traverse operations over multi-survey data • New voxel rendering technology (GPU enabled) for 8X performance improvements • New GPU-based modeling kernels for >6X performance • Regional multi-line 2D seismic facies classifications • Geologic and seismic interpretation views with production data • True 3D restoration and basin modeling • 3D model uncertainty capture • Multi-point geostatistics and proportional facies • Hybrid Windows and Linux deployment for all interpretation and modeling technologies

Kingdom_SMT_V8.6_download

What’s New In KINGDOM 8.6

The latest release of KINGDOM offers 27 new capabilities for customers. New capabilities range across 2d3dPAK, EarthPAK, VuPAK, VelPAK, and some capabilities applicable KINGDOM-wide. Shown below are two of the largest enhancements. Click Read More below to see all the new features.

Re-Engineered KINGDOM Fault Surface Modeling

The New Fault System is a complete redesign of the original fault system to provide a more accurate interpretation with new tools to modify fault surfaces.

* A new triangulation engine provides better fault surfaces.
* Fault smoothing using flex grid technology smooths one or all fault surfaces.
* Fault polygons are created using the exact line of intersection between the fault and the horizon or grid.

Microseismic Analysis in VuPAK Advanced

* Integrates seismic data interpretation with microseismic events
* Displays the events in any 2D or 3D window in time or depth
* Filters the data by any attribute with results seen in all views
* Includes easy tools to lasso or digitize desired subsets in any view in order to cut or crop points
* Provides dynamic visualization of microseismic events by any attribute as applied to color, size, and visibility
* Dynamically updates with user manipulation of microseismic events
* Generates a better understanding of reservoir response to well treatments
* Brings microseismic evaluation to the interpreter's desktop
* Provides a cost effective way to evaluate microseismic and treatment data

SPT_Group_OLGA_7.0_download

This minor release contains important bug fixes for e.g. OPC server and Wells GUI.

The most important fixes in OLGA 7.0.1 are:

* Problem with LoadSnap solved in OPC server
* Consistency in results when running cases with wells interactively, in batch or with OPC server
* Improved handling of illegal input data in OPC server
* Bug when starting simulations from the Wells GUI after updates fixed
* Bug in the distributed reservoir inflows option in the Wells GUI fixed
* Default units are included in the .genkey file (as in OLGA 6)
* Problem with ENDCONTROLLER solved
* Improvements in the documentation

LGA 7.0.1 Download


Version 7
OLGA 7.0 comes with a graphical user interface (GUI) which provides new look and feel features, a new diagram view and 3D visualization. Further, two new modules are available in OLGA 7.0. The OLGA HD Stratified Flow Model is a simplified 3D model for three phase stratified flow, and the Plug-In module is a framework for interfacing user-defined models.

Highlights in this release includes:
• Easy to use interface and workflows
• OLGA High Definition model for stratified flow
• Open framework for easy integration

SimSci-Esscor_PRO/II_V9.1_download

PRO/II 9.1® process simulation software is a steady-state simulator enabling improved process design and operational analysis. It is designed to perform rigorous mass and energy balance calculations for a wide range of chemical processes.

Spanning oil & gas separation to reactive distillation, PRO/II offers the chemical, petroleum, natural gas, solids processing and polymer industries the most comprehensive process simulation solution available today.
Key Benefits

* Rigorously evaluate process improvements before committing to costly capital projects
* Improve plant yields through the optimization of existing plant processes
* Cost effectively assess, document and comply with environmental requirements
* Accelerate process troubleshooting
* Detect and remedy process bottlenecks

Key Capabilities

* Refining applications: heavy oil processing, crude preheating, crude distillation, FCC main and coker fractionator, naphtha splitter and stripper, sour water stripper, sulfuric and HF acid alkylation
* Oil & Gas Processing applications: amine sweetening, cascade refrigeration, compressor trains, deethanizar, demethanizer, gas dehydration, hydrate formation/inhibition
* Chemicals/Petrochemical applications: ethylene fractionation, C3 splitting, aromatic separation, cyclohexanes, MTBE separation, naphthalene recovery, olefin and oxygenate production and propylene chlorination
* Chemical applications: ammonia synthesis, azeotropic distillation, biofuels, crystallation, dehydration, electrolytes, inorganics, liquid-liquid extraction, phenol distillation, solids handling
* Polymer applications: free radical polymerization, step-growth polymerization, copolymers
* Pharmaceutical applications: batch distillation & reaction

Roxar_IRAP_RMS_V2011_download_win32_win64

Emerson Process Management today announced the launch of Roxar RMS 2010, the latest release of the reservoir modeling system RMS™ which comes with major improvements across the entire workflow.
Within the Roxar modeling suite, users can build models for any reservoir. They can also estimate reserves, plan wells and simulate past and future production. In this way, they can do everything they need to produce maximum performance from their reservoirs, regardless of geology, location or complexity.
Benefits to users of RMS 2011 include:

? The ability to model beneath and around salt and other complex structures. RMS 2011 supports complex fault modelling that other applications can’t handle and incorporates these models into its advanced 3D gridding engine without simplification. Additional modelling functionalities that come with RMS 2011 include building intrusion objects into structural modelling to better model salt, and a new grid data structure for improved performance, scalability and more flexibility in the grid geometry.

? Enhanced facies modelling tools which will enable the user to rapidly combine the latest 4D seismic surveys into the models to improve the quality of interpretations, structural and property models, simulation models, and well plans. The model can also be the basis for a more quantitative use of 4D seismic data, especially towards history matching with both production data and 4D data.

? New well correlation tools with improved handling for horizontal and vertical well correlations which cross stratigraphic boundaries. RMS 2011 enables the user to split the horizontal well into separate sections so that well data can be inspected in the most practical manner possible, whether True Vertical Thickness (TVT) or True Stratigraphic Thickness (TST). In addition, advanced ghost curve capabilities can mix and match curves. Users can also examine array logs on top of one dimensional well logs, allowing for correlation to take place by taking into account seismic data as well as resistivity logs.

? Fractures are also fully integrated into the RMS 2011 reservoir modelling workflow through a DFN-based (Discrete Fracture Network) model which enables robust, fractured models to be built faster, providing an important tool in tackling the complex, fracture-prone geologies prevalent throughout the world.

? Improved usability and integration features which make RMS 2011 even more accessible and easier to use. Users are able to easily import large 2D or 3D surveys into RMS 2011 and enjoy an optimised working environment with updated data analysis charts, multiple and highly interactive visual displays and the best in graphics technology. For quality control purposes, the user can also produce all the necessary charts and maps to check consistency between the property models and the input data.

CAESAR II 2010_V5.3

CAESAR II is the Pipe Stress Analysis standard against which all others are measured and compared. The CAESAR II spreadsheet input technique revolutionized the way piping models are built, modified, and verified. CAESAR II was the first pipe stress program specifically designed for the PC environment. The interactive capabilities permit rapid evaluation of both input and output, thereby melding seamlessly into the "design - analyze" iteration cycle.

CAESAR II incorporates a wide range of capabilities, from numerous piping codes, to expansion joint, valve & flange and structural data bases, to structural and buried pipe modeling, to equipment and vessel nozzle evaluation, to spectrum and time history analysis. Most of the features of CAESAR II are available at a keystroke, but at the same time are not imposed upon the analyst.

A menu driven scroll and select interface provides logical options when and where expected. Context sensitive help provides instant technical assistance for each data field, with expected units. Data values presented in the help screens are automatically presented in the current set of units to aid input.

The customization options of CAESAR II have been driven by user requests, code changes, and the need to benchmark older, existing systems and their initial design. Many of these customization options enable newer analysis techniques appearing in current literature.

As with all COADE products, CAESAR II is continuously maintained and improved by the engineering staff. The engineering staff of COADE have worked in industry, for engineering and consulting firms. This experience not only guides program development, but provides users with knowledgeable support. This allows CAESAR II to work the way a typical engineer thinks and solves a problem. This also means that the technical support provided to users by the engineering staff is almost instantaneous. Users talk straight to the developers, insuring an accurate and timely answer.

Program revisions incorporate additional capabilities addressing both technical and operational items. Users are encouraged to suggest improvements which help their day to day usage of the software. See the enhancement list for details of capabilities added for each release of the CAESAR II program.

Whether you are a one-man consulting company or a large corporation, if you are looking for a piping analysis program, CAESAR II is the best solution available - period.

Ommi-3d-design-v10-crack

OMNI 3D is the industry standard for seismic survey design and modeling. Developed by geophysicists for geophysicists, OMNI 3D is used by hundreds of specialists around the globe for the planning, execution, and analysis of land, marine, transition zone, VSP, and multi-component surveys. OMNI 3D features a superior user interface and a versatile multi-project handling capability, both of which allow users to quickly and effectively analyze and monitor their seismic acquisition projects.
Design & Edit Module
§ Design Land, VSP, Streamer, OBC, and OBS survey
geometries with easy to use design wizards
§ Create scripts using simple or complex shooting schemes
§ Edit surveys using sophisticated editing tools
§ Analyze and compare multiple survey geometries
§ Import and export data in all common formats
§ Integrate DXF, TIFF, shapefile, and other culture data in
multi-layered projects
§ Output complex scaled plots, including user-defined
labels and annotation to any Windows printer
Target Module
§ Create 3D target horizon models using imported horizon
data
§ Calculate survey design parameters such as bin size,
maximum offset, and migration aperture required to
illuminate the target horizon
link for dwcrk.com

CMG-2009.10

SIMULATOR CHANGES

Geomechanics Coupling
One- and two-way (explicit as well as iterative) coupling with CMG’s
Geomechanics module has been implemented into GEM and is being
released as a Beta feature.
The geomechanics module handles different constitutive models like,
linear and non-linear elastic, generalized plasticity, elasto-plastic, single
surface, and creep models. For the elasto-plastic model the yield criteria
can be specified via Mohr-Columb or Drucker-Prager that are suitable
for the description of geologic material. There is also an isotropic strain
hardening and softening option. The behavior of cyclic loading and
unloading that occurs during cyclical injection and production can be
modeled. A cap model is also available for yield criteria of elasto-plastic
material. For Non-linear elasticity, hypoelastic and hyperelastic
constitutive models are available. Associated or non-associated flow
rules can be used for Mohr-Columb, Drucker-Prager, single surface, or
generalized plasticity models.
The above constitutive models can be used in 2D or 3D problems in the
Cartesian, corner-point, or axissymmetric grid. Finite element method is
used in the geomechanics module to compute the geomechanical
responses. The user can specify a variety of boundary conditions in 2D
and 3D on nodal points of the finite element.
The geomechanics module solves for the force equilibrium of the
formation and calculates volumetric dilation/compression as a result of
both elastic and plastic straining.
The coupling options allow porosity to be optionally dependent on
deformation. It can be a function of pressure temperature or volumetric
strain; or a function of pressure temperature and total mean stress.
The change in matrix and fracture permeability due to geomechanical
effects can be computed by a number of algorithms including the ones by
Li and Chalaturnyk; and Barton-Bandis.
A large number of possible geomechanics responses are available for
viewing in CMG’s graphical post processor “Results”, and also available


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to the text “.out” and “.geo” files. The user can view grids in “Results”
that deform with time, but there are some restrictions for displaying 2D
radial grids.
A new data section GEOMECHANICS has been added which precedes
WELLS AND RECURRENT DATA section in the GEM input data file
to facilitate entry of geomechanics related keywords. Please see the
chapter on geomechanical features for specific keywords.
The coupled geomechanic modeling may be useful for a variety of
situations, like determination of leakage through points of weakness in
the cap rock during GHG sequestration, effect of rock deformation and
porosity change during CBM/ECBM simulation, solid deposition in
asphaltene modeling, and mineral dissolution and precipitation during
geochemical processes, and others.

Improved Parallel Performance
A new method has been implemented for parallel equation and residual
building using a method of domain decomposition based on Parasol
classes. This method is expected to give better scalability on computers
with larger number of processors.
The method is activated by using *JACPAR *ON in the Numerical
Methods section, or by specifying –jacpar on the command line. In order
to use *JACPAR, the parallel computing licensing feature must be
active.

Oil-Wet Rock-Fluid Model
The oil-wet rock fluid model modifies both the initialization and flow
calculations in GEM. See the OILWET subkeyword of the RPT keyword
for details.
The oil wet option initialization assumes that the reservoir was initially
water wet and has undergone a wettability alteration to become an oil
wet reservoir. This assumption has a significant impact on how fluids are
placed during reservoir initialization.
In the oil wet model, three phase flow is calculated assuming water is the
intermediate phase. Therefore Kro is a function of oil saturation, Krg is a
function of gas saturation, while Krw is a function of both oil and gas
saturation (through Krwo and Krwg). The normal three phase flow
models (e.g. Stone 1, Stone 2, segregated, etc) are used to determine
water relative permeability, not oil permeability.