High-definition seismic acquisition and well log data are now common among oil and gas companies. But having spent significant amounts on acquiring the data, organizations still lack the tools to extract the deeper levels of information available. The challenge extends from data processing and imaging to tying to logs, performing interpretations, honoring complex geology in the model, and outputting it all into simulation. With this in mind, and based on a long history of innovation, Paradigm has undertaken to create the first high-definition software platform to ensure that investments in data acquisition result in added value to drilling, completion and production. In Paradigm 17, the latest version of our solution suite, we leverage a high-definition platform, cloud computing, and the integration of Machine Learning, along with advanced technology and seamless integration, to improve asset team effectiveness in achieving superior decision-making results.

 

Paradigm 17 enables users to:

• Work within a truly integrated ecosystem, for everything from well log analysis to seismic imaging, interpretation, and modeling.
• Gain a deeper understanding of assets through the use of all available data in integrated workflows, including the consolidation of interpretation windows in a single application in SeisEarth.
• Recover, process and visualize all available data from seismic for better imaging and property distribution.
• Use the multi-2D line framework for processing and imaging to maximize productivity and minimize manual intervention.
• Better identify sweet spots through advanced well log analysis.
• Perform detailed interpretation of high angle and horizontal wells with the help of advanced 3D petrophysics, and use extended engineering capabilities to plan, complete, and produce with greater confidence.
• Benefit from Machine Learning technology to extrapolate property probabilities away from the well bore.

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ASDIP STEEL is structural engineering software utilized by engineers for design of steel base plate, steel and composite beam, steel columns, and other structural steel members. ASDIP STEEL is based upon the latest AISC specifications (AISC 360). ASDIP STEEL substantially simplifies time-consuming calculations for structural engineering design. More info.

 

• Concrete Columns: design of a concrete column under the action of axial loads and bending moments. This module calculates the magnified moments for slenderness of ASCE 7 load combinations, and generates the column strength interaction diagram.
• Concrete Beams: design of a concrete muti-span continuous beam under the action of uniform and concentrated loads. This module accurately calculate the bending and shear strength for different types of beams. Load combinations per ASCE 7.
• Bearing Walls: design of a concrete wall under the action of vertical and out-of-plane lateral loads. This module calculates the magnified moments for slenderness of ASCE 7 load combinations, and generates the wall strength interaction diagram.
• ASDIP Concrete is an integrated, interactive system that combines the flexibility of a fill-in-the-blanks format with the power of Windows Forms to effortlessly develop either an optimal design or a quick investigation.

Using a screen with tabbed pages, ASDIP Concrete allows you enter your data directly onto the forms and see the result immediately. This way you are always in control of the design process, since what you see is really what you get. In addition, the detailed results and the graphics are always available for you to follow by the touch of a tab.

• Cantilever Retaining Walls: Design of a retaining wall supported only at the base under the combination of earth pressure, surcharge, wind and seismic loads. The module designs the wall per the load combinations of the ASCE 7.
• Restrained Retaining Walls: Design of a retaining wall supported at the base and laterally restrained at the top, also known as a basement wall, under the combination of earth pressure, surcharge, wind and seismic loads. The module designs the wall per the load combinations of the ASCE 7.

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Mollier diagram is a powerfull application based on the H-S diagram or Mollier diagram. The application can be used to make calculations of air treatment processess such as heating, cooling and humidifying. The output of these calculations is conviniently stored in a spreadsheets which can be exported to Microsoft Excel.

Depuis sa commercialisation en 1993, Arche s'est imposй comme le logiciel de rйfйrence pour la conception et le dessin de bвtiments en bйton armй. A partir d'un modиle 3D de bвtiment composй de dalles, poutres, poteaux, voiles et fondations, Arche analyse la stabilitй globale de l'ouvrage et produit automatiquement tous les plans de ferraillage. Le logiciel Arche se distingue avant tout par les innovations techniques qu'il met en œuvre : prй dimensionnement de la structure, calculs de descente de charges et de contreventement mixant mйthode traditionnelle et modйlisations numйriques sophistiquйes, production automatique des plans de ferraillage des йlйments de structures suivant diffйrentes normes, notamment les EC0, EC1, EC2 et EC8.

 

• Enrichment of pharmaceutical structures, including addition of DrugBank IDs.
• Addition of validated metal oxidation states to over 21,000 entries.
• Inclusion of article DOIs for many older entries.
• Manual addition of structures from non-electronic data.
• Enhancement of many entries from 35 years of historical structures.

• Seamless installation of the CSD Python API within the CSD 2017 release.
• An upgraded CSD Python API menu in Mercury with even more scripts.

• Make use of touch-screens with Mercury for pinch, pan and zoom.
• Sketch a molecule within Mercury and convert to a 3D model.
• Perform additional crystallographic transformations in Mercury (such as inversion, switching space group settings or changing origin choice).
• Utilise two new metal-organic framework (MOF) subsets within ConQuest.

• Make the most of your unlimited processes with streamlined licensing on clusters.
• Automate and integrate preferred workflows with our first implementation of GOLD in the CSD Python API.
• Receive faster more robust development of GOLD in the future as a result of extensive updates to the underlying code.

• Produce experimentally realistic ensembles of conformers using our CSD-driven Conformer Generator.
• Generate your pharmacophore from known binders using the improved Ligand Overlay application.
• Screen your virtual library using the Field-Based Ligand Screener in the CSD Python API.

• Enhancements to the graphical user interface for studying crystal packing similarity and dissimilarity.
• Significant advances in the layout and usability of the Hydrogen Bond Propensity application.

 

Slope is the program which carries out the analysis of soil or rock slope stability both in static and seismic states utilizing the limit equilibrium methods of Fellenius, Bishop, Janbu, Bell, Sarma, Spencer, Morgenstern & Price and Discrete elements method (DEM) for circular and non circular surfaces by which it is possible to ascertain slippages in the slope, examine a gradual failure, and employ various models of force-deformation relationship. Reinforcements with piles, gravity and/or reinforced concrete bracing walls, nettings, geofabrics, anchors, and terracing may be specified. Distributed and point loads may be defined.

In Italy as well as in many Countries worldwide, several designers rely on Paratie Plus in their retaining wall projects. For example, in the construction of the High Speed Trains guyed bridge over Po River near Piacenza, several cofferdams and other waterfront structures had been designed by our engineers using past versions of Paratie Plus. More recently, thank to the same design tool, other Italian engineering firms, have designed the temporary cofferdams for all river crossings along the new high speed train line linking Milano to Brescia. Stemming from a cooperation, since 1985, with professor Roberto Nova from Politecnico di Milano, Paratie Plus is a non linear analysis program conceived to model the soil-structure interaction of a flexible retaining wall, by means of the popular subgrade reaction method, a simple yet widely accepted approach in current design practice as well as by most of design standard worldwide, including Eurocodes.

• a rigorous soil model formulation within modern Soil Mechanics framework;
• a special constitutive model for clays in both drained and undrained conditions, based on critical state concepts;
• a realistic construction stage modelling, even for quite complex sequences;
• a general seepage scheme for layered soils;
• external loadings and interaction with nearby foundations modelling;
• in any construction stage, support and loading layout can be modified arbitrarily ( special non linear supports, prestressed ground anchors, struts, slabs and other features are allowed);
• two facing walls can be modelled thus allowing a coupled analysis of a sheetpile and its anchoring wall;
• a pseudo-static seismic procedure is included, based on a well documented proprietary algorithm;
• a GUI interface including, among many other features, a complete set of online correlations to assist the Users in selecting appropriate soil parameters based on most common in situ or lab tests;
• a linkage with the modern Limit Stated design methods, according to Eurocodes 7 and 8 as well as to NTC, EC2 , EC3 , AISC and ACI, for structural checks.

Quick Terrain Modeler is the world's premier 3D point cloud and terrain visualization software package. Designed for use with LiDAR, but flexible enough to accommodate other 3D data sources, Quick Terrain Modeler provides an easy to use software experience that allows users to work with significantly more data, render larger models, analyze data faster, and export a variety of products. These benefits enable very powerful, yet simple and intuitive, terrain exploitation.