Zinc Oxide (ZnO) is unique among sunscreen mineral actives for its ability to provide comprehensive protection across UVA, UVB, and even UVC spectrums. Titanium Dioxide (TiO₂), while effective against UVB, does not offer the same broad-spectrum coverage. Traditional macro-particulate forms of these minerals, however, appear as an opaque white layer on the skin—reducing cosmetic appeal and limiting consumer adoption.

Through nanotechnology and quantum material design, we enhance the UV-blocking efficiency of mineral sunscreens while minimising visible residue. Ultra-high specific surface area (nano)particles deliver superior performance using smaller doses, improving transparency and spreadability. As particle size decreases below 20 nm, UV absorption capacity and multifunctional benefits—such as antimicrobial, antifungal, and wound-healing effects—significantly increase. This enables lasting protection with lower active material use, improving aesthetics and sustainability.

Unlike TiO₂ nanoparticles, which can raise safety concerns in nanoform, ZnO remains non-toxic and biocompatible. NANOARC addresses both performance and perception challenges with two breakthrough material platforms:

I. Zincene Oxide (2-Dimensional ZnO) – Atomically thin flakes (non-nano) with an exceptional specific surface area of 635,200 cm²/g.

II. Zinc Oxide (0-Dimensional) – Nanoparticles with a surface area of 415,300 cm²/g.

For comparison, conventional ZnO offers approximately 45,000 cm²/g, and standard commercial nano-ZnO averages around 100,000 cm²/g. By exceeding these benchmarks by several magnitudes, our materials empower formulators to achieve higher performance at lower doses—delivering smoother texture, improved dispersion, and a natural, transparent finish.

Remarkably, our non-nano Zincene Oxide achieves quantum-level performance without crossing regulatory nanoparticle thresholds. This allows brands to cater to nano-sensitive consumers while maintaining superior efficacy and cosmetic quality.

ANTIMICROBIAL QUANTUM MATERIALS – WHAT'S UNIQUE?

Beyond sun protection, NANOARC’s atomically engineered quantum materials exhibit exceptional antimicrobial performance. The Zone of Inhibition (ZOI)—the clear area surrounding an antimicrobial agent—serves as a key measure of effectiveness. Quantum materials produce ZOIs that are two to four times larger than conventional materials, performing powerfully in both illuminated and dark environments. This dual-mode functionality is vital in applications such as wound healing, post-surgical care, and infection prevention, reducing reliance on antibiotics.

Quantum materials maintain consistent efficacy against antimicrobial-resistant strains, outperforming traditional compounds that lose potency over time. Their atomically optimised design ensures that as surface area increases, antimicrobial protection amplifies proportionally—creating durable, long-lasting defence even in challenging biological environments.

These materials can be integrated seamlessly into cosmetic creams, medical coatings, and implant surfaces, where they inhibit bacterial growth, support skin regeneration, and provide a safer, cleaner healing process.

THE SCIENCE : THE ESSENTIAL ROLE OF SPECIFIC SURFACE AREA & POLYMORPHISM

At the core of NANOARC’s breakthrough lies Specific Surface Area (SSA) — the total surface area of particles per unit mass. A higher SSA provides more active surface sites for light interaction, ion exchange, and biological activity. This drives:

• Enhanced UV absorption and reflection even at low concentrations.

• Greater antimicrobial and healing efficiency per gram of material.

• Improved dispersion and transparency in creams and gels.

• Lower dosage requirements, minimising environmental and formulation load.

However, surface area alone isn’t enough — crystal phase design (nanoarchitecture) determines how efficiently a material interacts with light to shield UV radiation, moisture, is antimicrobial, and biomolecules.

NANOARC’s proprietary polymorphic ZnO systems combine multiple crystal phases (including wurtzite, zinc blende, and transitional quantum-stabilized structures) at the atomic scale.

• Broader UV spectrum coverage due to varied electronic band structures.

• Enhanced charge mobility and photocatalytic balance, ensuring efficiency without instability.

• Superior antimicrobial behaviour, effective in both light and dark conditions.

• Intrinsic structural resilience, extending shelf life and formulation stability.

NANOARC’s quantum materials outperform traditional actives by up to 400% in antimicrobial efficacy, maintaining activity in both light and dark conditions. Their large Zones of Inhibition (ZOI) enable consistent protection against a broad spectrum of bacteria, including resistant strains—critical for post-surgical, wound-care, and premium skincare applications. This positions NANOARC not only in cosmetics but also in medical, personal care, and protective coatings markets.

SUSTAINABILITY & STRATEGY

Our materials reduce environmental load by minimising active ingredient concentration while maximising performance. This resource-efficient design aligns with global sustainability mandates and consumer eco-awareness. The result: better outcomes, lower cost per use, and reduced ecological footprint.

COMPETITIVE ADVANTAGE

• Proprietary material architectures.

• Scalable, low-dose designs.

• Dual applicability across cosmetics and medical-grade care.

• Strong alignment with clean beauty and sustainability.

VISION

NANOARC’s mission is to redefine luxury skincare through clinically proven, quantum-engineered materials that protect, repair, and rejuvenate. By enabling brands to deliver transparent, safe, and high-performance formulations, we create the foundation for a new category — Clinical Luxury Cosmeceuticals.

SUMMARY

NANOARC Quantum-Phase ZnO systems — Zincene Oxide (2D) and 0D ZnO Quantum Nanoparticles — integrate polymorphic quantum architectures and ultra-high specific surface area (SSA) to achieve broad-spectrum UV protection, photo-independent antimicrobial performance, and biocompatibility at up to 90% lower dosage than conventional ZnO.

Through nature-inspired quantum engineering, these systems deliver superior transparency, sustainability, and dermal compatibility, setting a new benchmark in advanced mineral skincare — Inspired by Nature, Engineered for a Sustainable Tomorrow.