Meet LunaWake, the bedside sleep companion.Join the launch list
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Contactless bedside sensing

A room that knows when to help. And when to stay quiet.

From the nightstand, LunaWake reads your night—no camera, nothing to wear, nothing touching you. And its reading is being tested against polysomnography, the reference hospital sleep labs trust.

A sleeping person beside a softly glowing LunaWake exhibit, with subtle arcs showing contactless sensing
Concept visualization · real lab footage below ↓
How it works

Sense. Understand. Respond—or stay quiet.

A signal is not a sleep state. LunaWake senses first, understands second, and only then responds—so a noisy signal never turns into a made-up sleep state.

SENSE

A radar, not a camera

From the nightstand, a low-power radar notices presence, movement and the motion of breathing—through bedding, in complete darkness, with nothing worn. How the radar works ↓

UNDERSTAND

The night, thirty seconds at a time

LunaWake is built to estimate when you are asleep, awake, or somewhere in between—in the same 30-second epochs sleep labs score. When the signal is unclear, it says so instead of guessing.

RESPOND

One response at a time

Light, sound and a gentle wake, chosen for the moment—and often the best response is none at all. Your choice always wins.

01 · The study

Tested against the sleep lab’s reference.

Polysomnography—PSG—is how sleep medicine scores a night: brain waves, eye movement, heart rhythm, airflow and breathing effort, read epoch by epoch by trained technicians. It is the reference any serious sleep technology has to face.

Study design

Nearly a hundred lab nights, dozens of sleepers. Every one scored by technicians.

Healthy adults slept at a university sleep laboratory; sleepers with disturbed breathing joined at a partner hospital’s sleep-medicine center. Each night was recorded two ways at once—full PSG on the body, LunaWake on the nightstand—and scored by technicians under AASM rules, the scoring manual of the American Academy of Sleep Medicine. The study is ongoing, and the count keeps growing. Results are shared here as they are finalized.

Two technicians attach head electrodes to a seated sleep-lab participant
Two technicians place an electrode at the participant's forehead
A technician attaches a chest lead to a seated PSG participant
Electrodes and lead wires attached at the leg for polysomnography
  1. 01Full head-electrode setup
  2. 02Eye-area placement detail
  3. 03Chest lead placement
  4. 04Leg electrodes and lead wires
Technicians place head, chest and leg sensors before the overnight PSG recording begins. This is what the reference costs—a night of wires. LunaWake sat on the nightstand.
The signal, up close

One night, side by side with the lab.

Statistics summarize; a night shows. Three windows from an early two-night feasibility session with one sleeper, recorded before the larger study above—LunaWake’s bedside reading against the lab’s own instruments. These are the breathing and movement signals the estimate reads from; they show the raw material, not a result.

Signal window 01 · Falling asleepTwo records, one minute—asleep at 23:37 by the lab’s scoring, and the bedside reading shifted at the same minute.See the chart

Respiration and movement are shown for 30 minutes on either side of the PSG-scored event.

Fell asleep

At 23:37, by the lab’s scoring—and the bedside reading shifted at the same minute. As this sleeper drifted off, breathing settled into a calmer, more even rhythm, and the two lines pulled to within one breath per minute.

Average difference (MAE) 2.5 → 0.8 breaths/min (≈3× closer) across PSG-scored sleep onset · 1 participant.

Sleep-onset transition chart axis
Movement and respiration around PSG-scored sleep onset
Movement and respiration around PSG-scored sleep onset (compact mobile layout)
Night A · 1 participant · PSG scored by lab technicians · descriptive alignment, not classifier accuracy.
Signal window 02 · Overnight

Breathing rate tracks the lab’s chest belt across the displayed night.

One full night—LunaWake’s contactless reading, side by side with the PSG chest belt.

91%

of the night, the bedside reading stayed within three breaths a minute of the belt the lab straps to the sleeper’s chest—usually within a single breath. Close enough, on this night, to follow the sleeper’s breathing rhythm—with nothing touching them.

1 participant · night A shown · exploratory comparison

For the technically minded: average difference (MAE) 1.1 breaths/min · average bias +0.4 · ≈ 6 hours of compared sleep · single occupant, bedside range · pre-production algorithm.

Respiration chart axis
Full-night PSG respiratory belt and LunaWake respiration alignment chart
Full-night PSG respiratory belt and LunaWake respiration alignment chart (compact mobile layout)
Night A · 1 participant · sleep periods across one full night, scored by lab technicians · gaps stay gaps—nothing is filled in · exploratory comparison, not a diagnostic measurement.
Signal window 03 · Waking upThe clearest change of the night—awake at 06:59 by the lab’s scoring, and the bedside signal changed at the same minute.See the chart

Movement is shown through the PSG-scored awakening and out-of-bed event.

Woke up

At 06:59, by the lab’s scoring. On this night, waking ended the stillness of sleep—and the bedside signal changed at the same minute.

Movement index 2.3 → 17.4 (0–100 scale, 7.6×) after the PSG-scored final wake · 1 participant.

Wake transition chart axis
Movement and respiration around PSG-scored final awakening
Movement and respiration around PSG-scored final awakening (compact mobile layout)
Night B · 1 participant · PSG scored by lab technicians · descriptive alignment, not wake-detection accuracy.
Heritage

The sleep-estimation approach builds on 500+ PSG-annotated nights from our partner laboratory’s prior sleep-sensing research.

Field data

Adapted to contactless radar with hundreds of LunaWake’s own overnight recordings from real bedrooms.

The test

Then held to nearly a hundred PSG-scored lab nights—healthy sleepers and clinic patients alike, with more still being recorded.

02 · The sensor

Radio waves, read at the millimeter.

Breathing moves the body by millimeters. A 60 GHz radar can measure that from the nightstand—here is how it works, and what it can and cannot see.

HOW IT READS

Reflections, not images

The radar sends out a faint radio signal and reads its reflection off the surface of the body. Breathing and movement shift that reflection by millimeters, and the radar measures the shift—through bedding, in complete darkness.

REACH

Bedside only

Its reach ends at the bedside: within 2.4 meters, about eight feet. There is no lens and no image. It cannot see a face or a room; it can only sense motion.

PRIVACY

No camera, by design

The radar produces motion readings, not pictures. There is nothing to watch and nothing to leak from a lens, because there is no lens. Its microphones are used only for passive acoustic sensing, not voice commands or conversation, and the physical privacy switch cuts off acoustic sensing at the hardware level. What LunaWake records, and how it is stored, is described in our Privacy Policy.

03 · Response

A room that helps you settle—then gets out of the way.

Warm light and sound help you settle. As the night deepens, the room goes quiet, then brings you back gently when morning comes. You stay in control.

  1. Settle in

    Warm light. Slower sound. One guide, if you want it.

  2. Drift off

    As you settle, the room fades with you.

  3. Sleep undisturbed

    No prompts. No content. Just quiet sensing.

  4. Wake gently

    Light first. Sound only if needed.

  5. Understand your morning

    One useful insight—not another dashboard.

Change it, skip it, or turn it off anytime.
Illustrative product experience · not measured performance · wake follows the time you set—always
Evidence base

The ingredients draw from established research.

The evidence informs how the room uses light, sound and routine; it does not make an automated bedroom equivalent to clinical care.

LIGHT & SOUND

A lower-energy environment

Guidance is informed by circadian light, paced-breathing and music research.

Chang 2015 · Brown 2022 · CIE S 026:2018 · Laborde 2022 · Jespersen 2022

BEHAVIOR

Consistent cues, adjusted over time

Selected principles from CBT-I—cognitive behavioral therapy for insomnia—inform how the room supports your rhythm: a consistent wake anchor, clearer bed-and-sleep cues and gradual adjustments. LunaWake does not deliver CBT-I and is not a treatment for insomnia.

Qaseem 2016 · Edinger 2021 · Riemann 2023 · Espie 2012

WAKE

Gradual light, then sound

Dawn-simulation and sleep-inertia research inform the sequence.

Trotti 2017 · Gabel 2013 · Thompson 2014 · McFarlane 2020

Where it stands

What’s tested. What’s held back.

LunaWake tells you what it knows and how it knows it—and when it doesn’t know, it says so. That rule shaped the study, and it shapes every night at home.

Tested

Sensing and sleep estimates evaluated against technician-scored PSG across nearly a hundred lab nights—healthy adults at a university sleep laboratory and patients at a hospital sleep-medicine center. Results are shared here as they are finalized.

Held back

When the signal is weak, your record shows a gap instead of a guess—and the room stays quiet rather than act on a weak read. Sleep estimates are wellness insights, not diagnosis.

Next

More sleepers, more homes, more positions. Shared here as results come.

A calmer bedroom, built on evidence

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