Equestrian Fencing Advanced Training

Final Examination

Multiple Choice + Capstone Design Project

Answer all 10 questions below (80%, or 8 correct, required to pass), then complete the capstone design brief. The capstone is saved with your submission for instructor review and is required to finish the course, but only the multiple-choice score determines automatic certificate eligibility on this page.

1. What is the generally recommended minimum effective voltage measured at the far end of an electric horse fence?

2. What does an energizer's joule rating describe?

3. What is the general rule of thumb for grounding an energizer?

4. In solar sizing, why is "peak sun-hours" used instead of total daylight hours?

5. Which post type should never be used as a corner/brace post carrying fence tension?

6. Why does spacing typically need to tighten on curves compared to straight runs?

7. What is a widely cited reason woven (field) wire is riskier for horses than for cattle?

8. What is the most common real-world cause of a well-designed electric fence losing effective voltage?

9. Approximately what top rail/strand height is recommended for adult horses?

10. Why is a fence designed to "break away" under a horse's full body weight generally not the safety goal?

Capstone Design Project

Scenario: A client has an 8-acre irregular-shaped property being split into three paddocks for a broodmare band, a gelding turnout, and a quarantine/intake paddock near the barn. One paddock will be off-grid (no nearby mains power). Write a fencing plan (300–600 words) that specifies, for each paddock: perimeter material and reasoning, target voltage and grounding approach (if electrified), post type/spacing plan including corner treatment, and one specific safety consideration from Module 9 that applies to that paddock's use (e.g. the mare-and-foal band).