Courses Georgia Tech Professional Education

Integrated Grounding System Design and Testing

Comprehensive coverage of grounding system design for safety and lightning shielding, including soil characterization, modeling, data preparation, and practical design procedures. Learners analyze ground potential rise, touch and step voltages, and impacts on nearby structures using the WinIGS program to design effective substation lightning shielding systems.

Intermediate Level 32h 0m 🌐 EN

What you'll learn

  • Understand basic principles and step-by-step procedures for grounding system design for safety and lightning shielding
  • Learn soil characterization, modeling requirements, and data preparation for substation ground system design
  • Analyze and control ground potential rise, touch, and step voltages and their impact on nearby structures using WinIGS
  • Design substation lightning shielding systems to minimize risk from lightning overvoltages

Skills you'll gain

  • Apply grounding system design principles for safety and lightning shielding
  • Model power systems for grounding design, including ground potential rise reduction and shielding analysis
  • Evaluate grounding system performance including fault current distribution, transferred, touch, and step voltages
  • Use IEEE Std. 80 design procedures and compare with IEC-479-1 criteria
  • Characterize soil and interpret soil resistivity measurements using methods such as Wenner and Smart Ground Multimeter
  • Design ground mats to control touch, mesh, step, and metal-to-metal touch voltages
  • Perform integrated grounding system design including transfer voltages, cable shielding, and design optimization
  • Design substation lightning shielding using shielding angle, EGM method, and risk assessment
  • Analyze and mitigate lightning overvoltages, surge impedance, and transferred voltages to control circuits
  • Conduct and interpret ground impedance, soil resistivity, touch and step voltage, and transfer voltage measurements
  • Evaluate grounding systems through field testing and workshops using tools like WinIGS and Smart Ground Multimeter software

Prerequisites

  • Background in electric power systems or substation engineering (implied)
  • Familiarity with grounding and lightning protection concepts (implied)

Who this course is for

  • Electric power utility engineers involved in substation design
  • Engineers responsible for testing and design of grounding systems
  • Engineers engaged in design and testing of power systems for commercial installations
  • Engineers engaged in design and testing of power systems for industrial installations

Our Review

Learn A Course Online Editorial

Bottom Line

A rigorous, software-integrated grounding course from Georgia Tech that delivers genuine technical depth for working power engineers—but the price tag and prerequisite bar mean it's not for casual browsers.

⭐ Unrated 👤 Intermediate Engineers ⏱️ 32h listed 💵 USD 1,450

📊 Course Snapshot

Technical Depth5/5
Beginner Accessibility1.5/5
Software / Hands-On Practice (WinIGS)4.5/5
Standards Coverage (IEEE / IEC)5/5
Value for Price3.5/5

📝 Editorial Analysis

Let me be upfront: this is not a course you stumble into on a slow Sunday afternoon. Georgia Tech Professional Education built this for working power engineers who already know what a substation looks like—and who've probably lost sleep over a fault current distribution problem at least once. That specificity is both its biggest strength and its natural filter.

The curriculum is genuinely comprehensive. We're talking soil characterization via Wenner and Smart Ground Multimeter methods, IEEE Std. 80 design procedures cross-referenced against IEC-479-1 criteria, ground mat design for touch and step voltages, and lightning shielding using both the shielding angle method and the Electrogeometric Model (EGM). That's a full professional toolkit—not a sampler platter. The integration of WinIGS throughout is a real differentiator. Software-native instruction means students aren't just absorbing theory; they're building models. And that matters enormously when Monday morning arrives and there's an actual design on your desk.

The $1,450 price point will make some people flinch—I won't pretend otherwise. But compare it to a multi-day in-person professional development seminar (which this course essentially is, delivered online), and it starts to look more reasonable. The honest question isn't "is this expensive?" It's "will this change how I work?" For a substation design engineer who's been eyeballing grounding specs with incomplete confidence, the answer is probably yes.

One thing I'd flag: there are no public ratings yet—or at least none surfaced in the metadata. That's not a red flag for a specialized professional course from an institution like Georgia Tech, but it does mean you're going in without the usual crowd-sourced signal. My honest read? The course outline is detailed enough that the structure itself tells you something. This was designed by people who know the material cold, not assembled from a content checklist.

I'm going to sound picky, but the details matter: the course targets a fairly narrow audience—utility engineers, substation designers, commercial and industrial power system engineers. If you don't already have a background in electric power systems, this will feel like reading a legal brief in a second language. That's not a criticism. It's just honest targeting. The right student will find this invaluable. The wrong student will find it overwhelming and expensive.

⏱️ Real Time Investment

32h

Listed Duration

~50h

Realistic Estimate

32 hours is likely the video and instruction time. Add WinIGS modeling exercises, field testing workshops, and the cognitive load of absorbing IEEE Std. 80 procedures alongside IEC-479-1 comparisons—and you're realistically looking at 45–55 hours for an engineer who wants to actually retain this, not just finish it. Plan for 6–8 weeks at a steady pace if you're doing this alongside a full-time role. Don't try to cram it into one long weekend. (I've seen what happens when people try that with dense technical content. It's not pretty.)

🎯 Skills You'll Build

Grounding System Design WinIGS Modeling Soil Resistivity Analysis IEEE Std. 80 Procedures Touch & Step Voltage Control Ground Potential Rise (GPR) Analysis Lightning Shielding (EGM Method) Fault Current Distribution IEC-479-1 Criteria Comparison Field Testing & Measurement Substation Ground Mat Design Surge Impedance & Overvoltage Mitigation

Strengths

  • Covers the full grounding design workflow end-to-end—soil characterization, ground mat design, GPR analysis, lightning shielding, and field testing—without leaving obvious gaps.
  • WinIGS software is integrated throughout, so students build real modeling skills they can apply immediately, not just conceptual knowledge they'll forget by next quarter.
  • Dual-standard coverage (IEEE Std. 80 and IEC-479-1) is genuinely rare in professional courses and adds real value for engineers working on international or multi-standard projects.
  • Georgia Tech's institutional credibility is a meaningful signal for engineers who need to justify professional development spend to an employer or licensing board.
  • The target audience is precisely defined—utility, commercial, and industrial power engineers—which means the content doesn't waste time on material that doesn't apply to the people taking it.

Limitations

  • At $1,450, this is a significant investment with no public ratings to validate the student experience—you're trusting the institution's reputation more than peer evidence.
  • The prerequisite bar is real: without an existing background in electric power systems or substation engineering, this course will be genuinely inaccessible, not just challenging.
  • 32 hours of listed content almost certainly undersells the true time commitment once you factor in WinIGS exercises and field testing workshops—budget 45–55 hours realistically.
  • No publicly visible student reviews means there's no way to gauge how well the instruction translates complex standards (like IEEE Std. 80) into usable, day-one skills.

🎯 Bottom line: If you're a working power or substation engineer who needs to stop guessing on grounding design and start doing it with confidence and standards-backed rigor, this Georgia Tech course is worth the price—just go in with realistic time expectations and a solid prerequisite foundation.

Course information sourced from Georgia Tech Professional Education Last verified 3 weeks ago
USD 1,450.00
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