
Create a digital terrain model (DTM) in Geovia Surpac from topography data, interpolate contours, verify breaklines, and apply an XY projection to generate and save a DTM for mining planning.
Create and visualize geological drilling data in Geovia Surpac by setting a work directory, creating and running macros, and configuring lithology colors, trace styles, and depth markers for drill holes.
Extract lithology layers in geovia surpac using zone thickness and depth with lithology table A to build roof and floor seam correlations and a 500-meter continuity line.
Create a block model in Geovia Surpac using a boundary polygon and topography extents, set block sizes and subblocks, then constrain with a topography DTM to match surface.
Create and manage block attributes in Geovia Surpac, defining material, seam, and density, apply layer boundaries from seam A and seam B, save, and prepare for geostatistical interpolation.
Master measured resource volume calculation using Geovia Surpac, building on earlier steps to improve accuracy and efficiency in resource estimation.
Explore indicated resource volume calculation using Geovia Surpac in the complete guide to Geovia Surpac, Whittle, and MineSched, and understand how to apply this method to resource estimation.
Learn how to perform inferred resource volume calculations using Geovia Surpac, extending methods that previously added three elements.
Export block models from Geovia Surpac to Geovia Whittle, expanding on a prior method that added three models to streamline data transfer.
Learn how to configure parameters in Geovia Whittle, expanding on the note that previously only three were added.
Apply optimization techniques using Geovia Whittle as part of the complete guide, noting that previously three were added.
Create pit limits in Geovia Surpac, building on the hint that previously only three limits were added.
Design the ultimate pit in Geovia Surpac, applying guidance from the complete course on Geovia Surpac, Whittle, and MineSched to improve pit planning.
Learn fill calculation for waste dump in Geovia Surpac, as part of a complete guide to Geovia Surpac, Whittle, and MineSched.
Learn fill calculation for stockpile in Geovia Surpac, with a note on a prior method that involved adding three.
Create and optimize mining haul road designs in Geovia Surpac, extending the workflow beyond the earlier limit where we only added three steps.
Learn how to perform cut and fill calculations for mining haul road design in Geovia Surpac.
Import geological models in Geovia MineSched to integrate project data within the Geovia Surpac and MineSched workflow.
Set the mining period to 50 years, run the scheduling, and view the mining animation in Geovia MineSched with DTM topography and the PIP design; generate the material movement table.
Learn how to export scheduling results in MineSched for annual and monthly plans, integrating workflows with Geovia Surpac, Whittle, and MineSched for efficient mine scheduling.
Integrate your Udemy MinePlan certificate into LinkedIn to highlight MinePlan skills on your professional profile.
This comprehensive course provides in-depth, practical training on modern mine planning using industry-standard software: Surpac, Whittle, and MineSched. Whether you're a mining professional, student, or consultant, this course will equip you with the essential skills needed to design, optimize, and schedule mining operations from start to finish.
The course begins with the fundamentals of mine planning and gradually introduces you to the powerful tools used across the mining industry. Using Surpac, you'll learn how to import geological data, build block models, and create open-pit designs. Next, you'll move into Whittle, where you'll perform pit optimizations based on economic parameters, generating pit shells and strategic planning outputs. Finally, you'll explore MineSched to create both short-term and long-term production schedules, incorporating practical constraints and reporting tools.
Through real-world examples and step-by-step tutorials, you will develop a strong understanding of how these tools work individually—and more importantly—how they integrate together to create a seamless mine planning workflow.
By the end of this course, you will be capable of producing a full mine plan, from geological interpretation to final scheduling, using real data and best practices applied in professional mining projects.
This course is ideal for mining engineers, geologists, technical consultants, and students who want to boost their skills and stay competitive in a rapidly evolving mining industry.
Join us and take the next step toward mastering the digital tools that power modern mining operations.