A Full-Length Reclined Setup
The lower light bed combines a full-length surface with a black headrest. Its open format keeps the reclined area accessible within one complete white bed body.
Ten wavelengths in a full-length lower light bed, with a built-in touchscreen and black headrest.
Allow additional space for access, ventilation and servicing. See Technical Specifications for supplier-listed power.
Overhead panel and support column are not included.
Delivery details · Return conditions · Warranty Policy · Contact support
Settle into a reclined light routine with Ray™ Zenith. Ten wavelengths and a 1320-LED surface come together in a full-length white light bed with a black headrest.
A full-length light surface, integrated controls and a rolling bed base.
The lower light bed combines a full-length surface with a black headrest. Its open format keeps the reclined area accessible within one complete white bed body.
A touch display is built into the bed side, giving access to the available light-channel, intensity, timer and pulse settings directly on the equipment.
A broad 1320-LED array sits within the full-length bed surface. Ten listed wavelengths span visible blue, amber and red light together with invisible near-infrared.
PERSONALIZE YOUR LIGHT
Review your bed’s controls and choose the settings supported by your unit.
Ten wavelengths. Two light families.
Choose from the available light selections on the integrated display. Ten wavelengths do not imply ten independent switches.
Review brightness on the touch display.
Adjust intensity using the touch display and review the setting shown.
Separate timing and light-delivery settings.
Review timer and pulse settings separately on the integrated display.
Control ranges are not session recommendations. Follow the supplied manual for settings, positioning and eye protection.
Ray™ Zenith
6600W is the supplier-listed power figure, not an independently measured electrical draw. Approx. 117 kg includes packaging.
Supplied with a U.S.-standard plug. Follow the manual for installation, electrical connection, protective eyewear and supported settings.
Compare confirmed details when choosing your light system.
| Feature | OUR CHOICELumHarborRay™ Zenith | Other Brand |
|---|---|---|
| Wavelength Options | 10 wavelengths480–1060 nm | 1 wavelength |
| Warranty Coverage | 2-year warranty | 3-month warranty |
| Registration & Compliance | ✓ | × |
| Light Controls | Touch displayChannels, intensity, timer & pulse | Single light mode |
| Customization | ✓ | × |
| Placement & Format | Full-length bedIntegrated rolling base | × |
| Certifications | ISO 13485 / ETL / FCC / CE / RoHS | × |
THE SCIENCE OF LIGHT
A closer look at red light, near-infrared and the research behind photobiomodulation.
Red and near-infrared light are used in non-invasive light-based wellness routines.
RAY™ ZENITH
A full-length lower light bed brings ten wavelengths into a reclined setup, with a black headrest and integrated touch display.
Photobiomodulation describes biological responses to light. Researchers investigate how light-sensitive molecules may influence mitochondrial activity and ATP production.
Explore the researchConceptual illustration. General research does not establish results for Ray™ Zenith.
Visible blue, amber and red light join invisible near-infrared in a full-length lower bed. Select a wavelength to explore its research themes.
Five visible wavelengths and five invisible near-infrared wavelengths. Lens colors are illustrative; they do not represent measured output.
Blue light research examines how different wavelengths interact with skin cells. A laboratory study comparing 410, 420, 453 and 480 nm found that cellular responses varied with wavelength and dose, showing why blue light should not be treated as one interchangeable category.
Read the study: Opländer et al. · 2011 ↗This was a study of cultured human skin fibroblasts, not a clinical trial of acne or skin appearance. Findings at shorter blue wavelengths cannot simply be assigned to 480 nm.
Amber light has been investigated for skin comfort, visible redness and barrier-related measures. In a small randomized trial, researchers compared 590 nm alone and a 590/630 nm combination with an emollient-only control, reporting improvements in selected sensitive-skin measures.
Read the study: He et al. · 2026 ↗The trial involved 30 volunteers and specific LED treatment protocols. It offers a research direction for amber light; it does not establish the same outcomes from Zenith.
Visible red light is studied in skin-appearance routines. A randomized, sham-controlled trial of a facial mask combining 630 nm red light with 850 nm near-infrared assessed changes in crow’s-feet appearance over 16 weeks and reported improvement compared with the sham device.
Read the study: 630 + 850 nm facial-mask trial · 2025 ↗The study tested two wavelengths together in a dedicated facial device. It cannot isolate the contribution of 630 nm or predict results from a full-body system.
660 nm red light has been investigated for collagen-related activity and skin texture. One study combined a reconstructed human-skin model with a split-face clinical assessment, reporting changes in collagen-related markers and improvements in measured skin roughness under its pulsed LED protocol.
Read the study: Barolet et al. · 2009 ↗This evidence relates to a particular device and pulse schedule. Wavelength alone does not determine the dose, treatment response or results achievable with Zenith.
Deep-red light is also explored at the cellular level. A 670 nm laboratory study investigated mitochondrial networks and cell-matrix gene expression in mouse fibroblasts. Responses differed between pulsed and continuous laser exposure, highlighting the importance of how light is delivered.
Read the study: Giuliani et al. · 2015 ↗These were cultured mouse cells exposed to very low-level laser light. The findings are mechanistic research, not evidence of a full-body LED treatment benefit.
810 nm near-infrared light has been investigated around exercise. A randomized, placebo-controlled study in 28 soccer players examined targeted pre-exercise laser exposure and tracked strength, soreness and biochemical recovery markers. Outcomes varied with the power setting used.
Read the study: 810 nm muscle-recovery trial · 2017 ↗The study used a localized laser cluster before a controlled exercise task. Its dosing and delivery differ from a full-body LED bed, so the reported results are not a product promise.
830 nm is an invisible near-infrared wavelength studied for skin appearance. A randomized, placebo-controlled facial study compared 830 nm, 633 nm and their combination, examining wrinkles, elasticity and tissue changes. Improvements were reported in the active treatment groups.
Read the study: Lee et al. · 2007 ↗This research used defined facial LED protocols. The 633 nm comparison arm is not Zenith’s 630 nm channel, and these findings do not establish outcomes from this bed.
850 nm is often studied alongside red light in exercise-recovery research. A small crossover study of 660/850 nm LEDs reported changes in some recovery markers, while another trial found no improvement in its muscle-recovery indicators. The findings show that protocol and outcome choice matter.
Read the study: Combined 660/850 nm trial · 2011 ↗These studies tested combined wavelengths rather than 850 nm alone. Results are mixed and depend on the exercise task, timing and light dose; they do not establish a universal recovery effect.
A randomized, placebo-controlled trial investigated 940 nm LEDs and a separate 630 nm LED group in healthy men performing repeated jumping exercise. Researchers assessed exercise-induced muscle damage and recovery measures.
Read the study: Padoin et al. · 2022 ↗The trial involved 28 men and a specified exercise and light protocol. Its findings do not provide a session prescription or establish results for Zenith.
1060 nm extends Zenith’s listed configuration into a longer-wavelength near-infrared region. Nearby-wavelength research includes human forearm experiments using a 1064 nm laser to examine oxygenation and mitochondrial-enzyme signals, illustrating questions being studied in this region.
Read the study: Tian et al. · 2016 · 1064 nm ↗The cited study used 1064 nm, not 1060 nm, and a laser rather than this LED bed. It is nearby-wavelength context, not direct evidence for Zenith’s 1060 nm channel or a claim of deeper penetration.
General research does not establish results for Ray™ Zenith.
Space, power and care for your light bed.
Review the supplied manual, prepare appropriate opaque protective eyewear and keep entry and controls accessible. Follow its session guidance.
The supplier drawing lists 1990 × 710 × 586.5 mm (L × W × H). Allow additional room for entry, ventilation and servicing; follow the installation guide.
Zenith includes a U.S.-standard plug. Supplier-listed input is 100–240V AC, 50/60Hz. Follow the installation guide and have your installer check grounding and circuit capacity.
Follow the manual for shutdown, approved cleaning and handling. Keep light surfaces and controls accessible for maintenance.
Scene image is illustrative. Follow the supplied manual for safe use and eye protection.
YOUR ZENITH PURCHASE, AT A GLANCE
Your configuration, warranty and installation planning in one place.
Lower LED bed with touchscreen and rolling base · Headrest with bracket · Power cable with U.S.-standard plug · Protective eyewear · Remote control · User manual. Overhead panel and support column are not included.
Ray™ Zenith includes 2 years of warranty coverage. Contact our team for product support or a warranty request.
Warranty details →Estimated delivery: 6–11 business days, including processing. Wooden crate and doorstep delivery included. No additional delivery or crating fee; indoor moving, assembly and installation are not included.
Shipping details →Product dimensions are 1990 × 710 × 586.5 mm (L × W × H). Allow additional access, ventilation and service space. A U.S.-standard plug is included; follow the installation guide for electrical requirements.
Plan your installation →