Spartan Racers
Sprint, Super, Beast, and Ultra competitors training for the obstacle mix that defines the Spartan format.
Upload your training and race footage and receive instant AI-powered feedback designed to help you improve technique, grip efficiency, transitions, and race-day performance.
Obstacle IQ is an AI movement coach built for obstacle course racers. You film an obstacle attempt — a rope climb, a monkey-bar set, a sandbag carry, a wall — upload it, and within minutes the system returns a structured technique report covering the specific failure patterns that cost OCR athletes burpees and podium positions.
Race-day performance in OCR is rarely a fitness problem. The athletes who DNF or burpee-out are almost never undertrained — they are usually under-coached on technique. A 30-second slip on a rope climb, a wasted regrip on the monkey bars, or a poor sandbag carry posture compounds into the reason a sub-elite athlete finishes 15 places behind their fitness number.
Most OCR athletes upload a mix of structured training clips and race footage. The system treats race clips with extra care — fatigue, mud, and adrenaline change technique in predictable ways, and the analysis flags fatigue-driven errors separately from technique-driven errors.
Obstacle IQ is built for ocr athletes at every level — from beginners building their first technical reps to competitors refining podium-level execution.
Sprint, Super, Beast, and Ultra competitors training for the obstacle mix that defines the Spartan format.
Tough Mudder regulars who need feedback on team-style obstacles, grip-intensive challenges, and endurance-pace technique.
Savage Race competitors who want focused feedback on signature obstacles and high-density course transitions.
Hyrox-style and hybrid competitors who want carry and grip-endurance technique reviewed alongside their conditioning work.
Every clip is broken into the technical sub-components a great OCR coach would grade — the same checklist they would run mentally, applied to every rep instead of the ones they happen to be watching.
Footlock type (J-hook, S-hook, or none), pull cadence, hip drive, descent control, and grip residue across multi-rope sets.
Hand-over-hand vs. skip-bar patterns, hollow-body shape, swing damping, and grip fatigue across long sets.
Load position (front rack, zercher, bear hug), trunk angle, breathing cadence under load, and stride length on hills.
Approach speed, hand placement, hip drive over the wall, and dismount mechanics on inverted walls.
Time between obstacles, regrip frequency, hesitation events, and pacing efficiency across consecutive challenges.
Full-race analysis across submitted GoPro or third-party footage — flags fatigue-driven technique breakdown by lap segment.
OCR is uniquely punishing for technique mistakes. A failed obstacle is not a missed rep — it is a 30-burpee penalty or an automatic disqualification. Frame-by-frame review surfaces the technique leaks that cause those failures before they happen on course.
Self-review is unreliable for OCR athletes because most clips happen at race pace under fatigue. You cannot remember what your foot did on the sandbag carry when you were 90 minutes into a Spartan Beast. The video remembers.
Objective feedback also lets you compare race-pace and training-pace technique side-by-side. The athletes who podium are usually the ones whose race-pace technique looks almost identical to their training-pace technique — that gap closes through targeted video review.
Most importantly, technique feedback at the rep level compounds across a race. Saving 2 seconds per obstacle over 25 obstacles is 50 seconds — a finishing-position difference in any competitive wave.
These are the patterns that appear most frequently in OCR clips uploaded for review — and the ones that quietly cost athletes the most progress.
The single most common OCR failure pattern is climbing the rope with the arms and ignoring the feet. Grip blows by the second rope. Footlock technique converts the climb from a grip exercise into a leg exercise — and is the difference between finishing a Beast and burpee-ing out at obstacle 19.
Every regrip costs forearm endurance. Race-fit athletes regrip 1.5x as often by mile 4 as they did at mile 0. Targeted analysis surfaces this trend and prescribes hollow-body and dead-hang work to fix it.
Bucket brigades and sandbag carries fail at the low back, not at the legs. Athletes hug the load too low, lose the trunk angle, and pay for it on the descent. Cleaning up carry posture is one of the highest-leverage OCR fixes available.
The two seconds between obstacles add up to minutes across a race. The athletes who podium jog every transition — even the ones up steep hills. The system flags transitions you are walking that you could reasonably jog.
Crushed-fist grip on monkey bars and traverse rigs accelerates forearm pump. The technique fix is an active hook grip — strong enough to hold, loose enough to recover between bars. Video review surfaces over-gripping within the first set.
Most OCR formats penalize a dropped sandbag or bucket. Pacing the carry — short, steady, hill-leaned stride — is a learnable skill and one the system specifically grades.
Strong opening pace. By the 60m mark, trunk angle collapses from 25 degrees to 40 degrees of forward lean, and stride length shortens by 18%. Recovery pace on the return is reasonable but not optimal.
Most OCR athletes spend 95% of training on conditioning and 5% on technique. The leaderboard rewards the inverse. The athletes who podium consistently are the ones whose rope climb, monkey bars, and carries look mechanically identical in mile 1 and mile 7. Obstacle IQ exists to make technique training as systematic as conditioning training already is.
Training-pace technique and race-pace technique are different sports. The cleanest way to close the gap is to film race-pace efforts in training and review them under the same lens as race footage. The system handles fatigue as a first-class variable — what looks like a technique problem in mile 5 is usually a pacing or grip-endurance problem upstream, and the report identifies which.
An effective OCR week starts with the report from the previous race or training day. If the report flagged forearm fatigue, the week front-loads grip endurance. If it flagged carry breakdown at 60m, the week includes loaded carries at 50% race load with a focus on trunk position. Letting the data drive the schedule consistently outperforms generic OCR templates.
Yes. Race footage is one of the most valuable inputs because it captures fatigue-driven technique breakdown that training footage misses. GoPro, body-cam, or spectator footage all work.
Yes. The system analyzes movement patterns, not race brands. Rope climbs, monkey bars, walls, and carries are graded the same way regardless of event format.
Yes. Transitions are explicitly scored. The report flags every transition longer than your personal baseline and identifies whether the cause is hesitation, regrip, or pacing.
Grip fatigue is one of the strongest signals in the model. Across a multi-obstacle race, the system tracks regrip frequency and grip-style changes lap over lap and flags when fatigue is becoming a performance limiter.
Yes. Carries, sled work, and grip-intensive stations transfer directly to the OCR feedback model. Hybrid athletes commonly upload sled push, wall ball, and rowing technique for analysis.
Watches measure physiology. Obstacle IQ measures movement. Both matter, and neither replaces the other — but technique is the variable most OCR athletes neglect, which is why it usually delivers the biggest performance gain.
Side-profile from 12–15 feet for rope climbs and monkey bars. Behind-the-athlete works for carries. For full-race footage, a chest-mounted GoPro at 60fps captures enough.
Obstacle IQ focuses on obstacle technique. Running form is analyzed only as it relates to obstacle transitions and carry pacing — not as a standalone gait analysis.
Yes. Each clip is timestamped and stored against your profile, so you can compare your rope climb on race 1 with your rope climb on race 5 and see exactly what changed.
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Your complete first-Spartan training plan. Running, grip, carry strength, and the obstacles you'll actually fail. 8-week build for Sprint and Super distances.
A 10-week grip strength program built for OCR athletes. Hangs, carries, pinch work, and the failure-mode-specific drills that fix race-day grip blowup.
Monkey bar technique that survives mile 4. Grip choice, swing rhythm, foot drive, and how to cross long OCR rigs without burpees.
Why athletes fail OCR obstacles mid-race and the strategic, technical, and training fixes that turn failure points into reliable completions.