Weekly patterns
Analyze WHOOP Data with AI
Omid Mirzaei · 2026-08-08 · 9 min
A language model can read your WHOOP export faster than you can. It's only useful if you feed it a week of recovery, HRV, sleep, strain, RPE, and the bar, then ask for patterns, not a diagnosis.

What the model is actually for
You already have a wearable that captures overnight heart rate, HRV, sleep, and strain. A language model can sort those rows and suggest how next week might look. Zignoli's version of this is response-guided training: look at the response, then pick the next dose. Now a model can hold more numbers than I will on a Sunday (Zignoli, 2024).
Wearable biosensing plus machine learning is being built to support coaching, not to replace the log or the athlete (Biosensors, 2026). Daily panic is the wrong question. Weekly pattern is the right one. I use it like a junior analyst who is fast and too confident. I do not hand it the week.
WHOOP is not a medical device. The model is not a clinician. Neither one diagnoses overtraining, illness, or a sleep disorder. If you ask them to, they will still answer. That answer is not care.
What to feed it
From WHOOP, export or copy at least fourteen days, ideally twenty-eight, of recovery, HRV, resting heart rate, sleep duration, and strain. Nightly rows beat a screenshot of one color. Miller's sleep-lab work is why overnight HR and HRV are the columns I trust most (Miller, 2022). Sleep stages are weaker. The 2024 review said the same split: two-stage sleep and heart rate are more usable than four-stage sleep (Panchawagh, 2024).
Then add what the band cannot see. Session RPE for every lift and run. The actual work: squat sets, kilometers, interval paces, easy versus hard. Note alcohol, travel, late screens, illness, and menstrual cycle if it applies. Hybrid interference lives in that mash. Strain will over-weight the run. The lifting log is the correction.
Plews argued that HRV monitoring in endurance athletes works when you look at adaptation over time, not at a single morning (Plews, 2013). Düking's systematic review with meta-analysis found HRV-guided endurance training via wearables can help when the decision rule is to modulate intensity from a trend (Düking, 2021). Put that philosophy in the prompt. Otherwise the model coaches the screenshot.
A Sunday prompt I reuse
Paste the export. State that you're a hybrid athlete who lifts and runs in the same week. Tell the model to ignore single-day spikes unless they start a three-day drift. Ask it to find weekly patterns in recovery, HRV, RHR, sleep, and strain, and to line those patterns up with session RPE and the lifting log.
I ask a short set of questions, not twenty. Where did cardiovascular load accumulate. Where did overnight HRV and resting heart rate diverge from my baseline. Which sessions cost more than strain admitted, usually heavy lower body. What should next week protect: easy running volume, lifting intensity, or sleep.
Then constrain the output. No medical diagnoses. No invented race times. No claim that WHOOP measured VO2 or muscle damage. Propose one primary quality for the next seven days and one maintenance quality. Name the days that should stay easy.
- Export 14-28 days of recovery, HRV, RHR, sleep duration, and strain.
- Attach session RPE, the lifting log, and run notes for the same dates.
- Prompt for weekly patterns and 3-day drifts, not a verdict on this morning.
- Require a next-week plan that protects one quality and keeps easy days honest.
Guardrails, and what this is not
A good reply talks in weeks. It says your HRV seven-day average slipped while strain climbed on the run days, and squat RPE rose even when strain looked modest. It suggests moving intervals off the day after heavy lower body. It does not call you overtrained because Wednesday was yellow. A bad reply treats one score as a diagnosis, invents accuracy percentages, or deletes your long run. Push back: you're concurrent, strain is cardiovascular, and Miller only showed overnight agreement in that protocol (Miller, 2022). Zignoli's loop is the one I want: use the signal to guide the next stimulus, then look at the next response (Zignoli, 2024).
Never let the model add volume on a low-recovery week because you feel behind. Düking's HRV-guided literature modulates intensity when the autonomic picture is suppressed (Düking, 2021). Keep the easy kilometers. Cut the hard intervals. Keep lifting, but drop the heavy lower-body day if the trend and the bar agree the legs aren't there. Never paste other people's health records into a public chat. If the model and the session disagree, I believe bar speed, easy-run feel, mood, and sleep I can feel. Biosensing plus ML is support (Biosensors, 2026). You still walk into the gym.
Sunday: export, prompt, choose a primary quality, write the training days and the easy days. Don't re-query the model every time the recovery color changes. That's daily panic with extra tokens. This workflow will not make WHOOP a lab or a chatbot a doctor. It will make a hybrid week slightly less noisy.
This isn't medical advice. Don't use AI or WHOOP to diagnose disease, overtraining syndrome, or sleep disorders. If you have symptoms that aren't ordinary training fatigue, see a clinician. Then come back to the log. Ask the model about patterns. Leave the panic off the prompt.
Takeaways
- Export recovery, HRV, RHR, sleep, and strain for 14-28 days, then add session RPE and the lifting log.
- Ask the model for weekly patterns and 3-day drifts, not a diagnosis from one recovery color.
- When the trend is down, cut intensity first. Strain misses heavy lifting; the log does not.
Watch
Will Ahmed on HRV and sleep
References
- Various authors (2026). Wearable Biosensing and Machine Learning for Data-Driven Training and Coaching Support. Biosensors. doi:10.3390/bios16020097
- Zignoli A (2024). Sports Science 3.0: AI, HRV and response-guided training. Sports Performance & Science Reports. Source
- Düking P, Zinner C, Reed JL, Holmberg HC, Sperlich B (2021). Monitoring and adapting endurance training on the basis of heart rate variability monitored by wearable technologies: A systematic review with meta-analysis. Journal of Science and Medicine in Sport. doi:10.1016/j.jsams.2021.04.012
- Miller DJ, Sargent C, Roach GD (2022). A Validation of Six Wearable Devices for Estimating Sleep, Heart Rate and Heart Rate Variability in Healthy Adults. Sensors. doi:10.3390/s22166317
- Plews DJ, Laursen PB, Stanley J, Kilding AE, Buchheit M (2013). Training adaptation and heart rate variability in elite endurance athletes: opening the door to effective monitoring. Sports Medicine. doi:10.1007/s40279-013-0071-8
- Panchawagh S, et al. (2024). Accuracy, Utility and Applicability of the WHOOP Wearable Monitoring Device in Health, Wellness and Performance: a systematic review. medRxiv. doi:10.1101/2024.01.04.24300784