Experiments — Oxygen Library

Before and After: What 2 Training Sessions Did to Parkinson’s Motor Function

A subject with a 5+ year Parkinson’s diagnosis completed two LiveO2 sessions. The before and after tests — finger tap, heel-toe, balance — show something most neurologists don’t expect to see.

5+ yrs Neurological pathology
2 LiveO2 training sessions
After Generally unmedicated during post-test
Motor Tap, gait, and balance improved on camera
Note: LiveO2 does not claim this result is a direct product outcome or treatment for Parkinson’s disease. LiveO2 attributes improvements in motor function to increased oxygen availability in the nervous system, which supports motor neuron firing. Any method that similarly increases oxygen delivery to the nervous system may produce comparable results.
Parkinson's before and after LiveO2 training motion test

The Experiment Setup

This case study records motion performance in an individual who has lived with a Parkinson’s-related motor diagnosis for over five years. The subject completed two LiveO2 Adaptive Contrast sessions and was tested before and after the second session.

One key detail: before testing was conducted while the subject was generally medicated. After testing was done while generally unmedicated. This makes the observed improvements more notable, not less — the post-session results were achieved without the chemical support present in the baseline.

Test Protocol

Motor Tests Used

  • Finger tap test (bilateral)
  • Lightbulb movement (wrist rotation)
  • Heel and toe tap
  • Standing balance

Conditions

  • Before: 2nd session, generally medicated
  • After: post-session, generally unmedicated
  • 5+ year neurological pathology
  • Single subject case study

What the Camera Recorded

Motor Function Changes

1

Finger Tap Test

Before: one hand noticeably slower, hard to sustain the rhythm, described as “working with a nut and bolt — sometimes hard to put that nut on the bolt.” After: more sustained, less effortful, both hands more consistent.

2

Lightbulb Movement (Wrist Rotation)

Before: right hand harder than left, requiring noticeable effort. After: reduced resistance, smoother rotation. Subject noted the effort differential between hands decreased.

3

Heel and Toe Tap

Before: right side better than left; freeze events present. After: movement more fluid, freeze events reduced. “Sometimes it almost freezes — that’s what they call the freeze.”

4

Standing Balance

Before: legs felt disconnected, eyes-open balance compromised. After: more stable stance, improved eyes-closed test performance. “I look like a normal human.”

“It’s very subtle feeling. Hard to describe. It’s kinda like working with this nut and bolt — sometimes it would be hard to put that nut on the bolt.”

— Subject describing the difference in hand function during testing

Why Oxygen Changes Motor Function

Motor neurons fire electrochemical signals to produce movement. That process consumes oxygen. When oxygen supply to motor regions is compromised — whether from vascular dysfunction, disease progression, or simple altitude — the signals degrade. Movements become slower, less precise, and more likely to freeze.

Parkinson’s pathology is primarily about dopamine-producing neurons in the substantia nigra. But a significant secondary factor is vascular — reduced blood flow to motor control regions compounds the dopaminergic loss.

What Oxygen Training Does

LiveO2 Adaptive Contrast alternates between oxygen-rich and oxygen-reduced breathing during cardiovascular exercise. This drives large volumes of oxygenated blood through the circulatory system, including to the brain and nervous system.

When motor neurons receive more oxygen, they fire more reliably. The freeze events that characterize Parkinson’s motor dysfunction have a real-time oxygen component — and when that component is addressed, function improves measurably.

This is not a cure or reversal of the disease. It is a functional improvement driven by better oxygen availability — and it requires ongoing maintenance, like any exercise intervention.

Frequently Asked Questions

This case study involves an individual with a 5+ year Parkinson’s-related neurological diagnosis where motor performance is compromised. It records motor function before and after two LiveO2 Adaptive Contrast training sessions using standard motor tests including finger tap, heel-toe tap, wrist rotation, and balance assessment.
The before test was conducted while the subject was generally medicated; the after test was conducted while generally unmedicated. This means the post-training improvements were achieved without pharmaceutical support that was present at baseline — making the observed improvement more significant than if the conditions had been reversed.
Four motor tests were performed: (1) finger tap — measures speed and sustainability of repetitive motor firing; (2) lightbulb movement — wrist rotation assessing smoothness and resistance; (3) heel-toe tap — lower body motor control, including freeze events; (4) standing balance — static and dynamic postural control. All four showed improvement after the training sessions.
Motor neuron firing is an energy-intensive process that requires oxygen. In conditions where blood flow to motor control regions is compromised — which compounds disease pathology — neurons have less fuel to fire signals reliably. Increasing oxygen delivery through cardiovascular training with adaptive contrast temporarily restores more reliable motor signaling. The improvement is real but requires ongoing training to maintain, similar to any exercise-based intervention.
No. LiveO2 is not a treatment, cure, or therapy for Parkinson’s disease. LiveO2 attributes observed motor improvements to increased oxygen availability in the nervous system during and after training. Any technique that similarly increases oxygen delivery to the nervous system may produce comparable results. This case study is an observation, not a clinical trial.
This case study shows results after two sessions — and the before/after comparison is specifically from the second session. Results in the first session were sufficient to motivate a second, suggesting early changes were detectable. How durable these improvements are over time, and what frequency of training is needed to maintain them, is not addressed by this single case study.