System Overview

An integrated conditioning system — not standalone equipment.

Hardware, software, and biometrics work together in structured, standardized sessions. This page shows the blueprint: what physically and digitally exists in a session, and how the major system layers interact.

Explore the architecture

The system stack

System Overview

An integrated conditioning system — not standalone equipment.

Hardware, software, and biometrics work together in structured, standardized sessions. This page shows the blueprint: what physically and digitally exists in a session, and how the major system layers interact.

The system stack

Explore the architecture

The system stack

Four layers. One integrated system.

Each layer has a distinct role. Together they deliver structured stimulus, measure response, and support progression over time. Details live on subpages; here is the high-level view.

Layer 1

Environmental Modulation Layer

What physically creates the stimulus.

  • Alternating hypoxic and hyperoxic intervals delivered in predefined exposure blocks
  • Transition timing calibrated to support progressive desaturation tolerance
  • Structured recovery windows to avoid uncontrolled stress accumulation
Layer 2

Control & Programming Layer

Sessions are structured and repeatable — not manually improvised.

  • Phase-timed interval sequencing
  • Defined hypoxic exposure durations
  • Tiered protocol progression based on prior session response
  • Standardized exposure logic to remove operator variability
Layer 3

Biometric Monitoring Layer

Sessions are measured, not guessed.

  • Continuous SpO₂ tracking during hypoxic descent and recovery
  • Heart rate response mapping across interval blocks
  • Phase-tagged biometric logging aligned to exposure transitions
  • Desaturation depth and recovery slope observation
Layer 4

Data & Reporting Layer

Sessions compound and improve over time.

  • Session-level logging with phase-aligned biometric summary
  • Post-session review against exposure structure and response
  • Longitudinal tracking of tolerance trends across sessions
  • Protocol refinement and tier selection informed by prior response

The system stack

Four layers. One integrated system.

Each layer has a distinct role. Together they deliver structured stimulus, measure response, and support progression over time. Details live on subpages; here is the high-level view.

Layer 1

Environmental Modulation Layer

What physically creates the stimulus.

  • Alternating hypoxic and hyperoxic intervals delivered in predefined exposure blocks
  • Transition timing calibrated to support progressive desaturation tolerance
  • Structured recovery windows to avoid uncontrolled stress accumulation
Layer 2

Control & Programming Layer

Sessions are structured and repeatable — not manually improvised.

  • Phase-timed interval sequencing
  • Defined hypoxic exposure durations
  • Tiered protocol progression based on prior session response
  • Standardized exposure logic to remove operator variability
Layer 3

Biometric Monitoring Layer

Sessions are measured, not guessed.

  • Continuous SpO₂ tracking during hypoxic descent and recovery
  • Heart rate response mapping across interval blocks
  • Phase-tagged biometric logging aligned to exposure transitions
  • Desaturation depth and recovery slope observation
Layer 4

Data & Reporting Layer

Sessions compound and improve over time.

  • Session-level logging with phase-aligned biometric summary
  • Post-session review against exposure structure and response
  • Longitudinal tracking of tolerance trends across sessions
  • Protocol refinement and tier selection informed by prior response

Integration

How the layers work together

The flow is: stimulus → monitoring → data capture → adjustment. Here’s what that means inside a real session — not as a textbook diagram, but as operational logic.

  • Each interval block is tagged, so you know exactly which exposure segment produced which response.
  • Physiological response — SpO₂, HR, desaturation depth, recovery slope — is mapped to that block.
  • Tolerance trends are evaluated across sessions, not in isolation.
  • Future protocol tiers are selected accordingly, so progression is data-informed.

From stack to reality

What a session actually consists of

The four layers aren’t abstract — they map to a real, repeatable session structure. Here’s the bridge between the architecture and what happens in practice.

Interval blocks

A session is built from multiple discrete blocks. Each block has a defined role in the exposure sequence — hypoxic or hyperoxic — so the stimulus is structured, not continuous or random.

Alternating environments

Oxygen levels shift between blocks according to the protocol. Alternation is deliberate: it creates the intermittent stress and recovery pattern that drives adaptation.

Defined durations

Block length and transition timing are specified, not improvised. That’s what makes sessions repeatable and comparable across time.

Continuous monitoring

Throughout the session, SpO₂ and heart rate are captured and aligned to the block structure. You see response in context — not just a single number at the end.

Architecture, not marketing

Two architectural philosophies

Open stimulus model versus structured conditioning model. The difference isn’t marketing — it’s how the system is built. Segmentation and logging matter because they’re what make progression measurable and repeatable instead of guesswork.

Open stimulus model

Exposure is delivered; response is not structurally captured or used to refine the next session.

  • Fixed oxygen delivery — same stimulus regardless of individual response
  • No session segmentation — no way to tie physiology to specific exposure blocks
  • No data capture — no longitudinal view, no tolerance trends
  • No structured progression — advancement is manual or absent

Structured conditioning model

Stimulus is segmented, response is logged per phase, and future sessions are informed by prior data.

  • Structured intervals — predefined blocks with defined durations and transitions
  • Measured sessions — SpO₂ and HR mapped to each block, not just a single end value
  • Logged responses — phase-tagged data so you see desaturation depth and recovery slope
  • Progressive refinement — protocol tier and exposure logic informed by tolerance trends

Why this contrast matters: Without segmentation, you can’t attribute response to a specific part of the session. Without logging, you can’t track whether tolerance is improving. Without structured progression, you’re either repeating the same stimulus indefinitely or changing it by guess. The architecture of this system is built so that each session informs the next — that’s the structural difference.

Same architecture, every platform

The engine is consistent. Deployment varies by form factor.

The four-layer architecture exists across all platforms. Whether boxed, performance, or custom install, the system stack remains the same — only how it’s deployed changes.