Tailor-made nanomaterials,
Infinite Possibilities.

Uniquely designed for your application.

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Customizable composition and surface chemistry

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Precise size control and optimal monodispersity

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Delivered as powders, dispersions or pastes in desired solvents

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Composition and surface chemistry fine-tuning.

Precise size control and optimal monodispersity.

Delivered as powder, dispersion or paste in the desired solvent.

Applications & Industries.

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Catalysis & Photocatalysis

Nanomaterials are transforming the chemical, petrochemical, pharmaceutical, and environmental industries by making catalytic processes cleaner and more efficient.
Their photocatalytic capabilities also power
air purification systems, self-cleaning surfaces, and solar-driven chemical production for a more sustainable future.

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Sensors & Electronics

Across the automotive, environmental monitoring, and semiconductor sectors, nanomaterials enable compact, highly sensitive sensors and next-gen electronic devices.
From gas detectors to biosensors, these technologies support innovations in industrial automation, and real-time environmental diagnostics.

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Energy Storage & Conversion

Nanostructured materials are central to energy storage and conversion technologies, including  batteries, supercapacitors and fuel cells.
They're also key to solar energy conversion and hydrogen production, driving innovation in renewable energy infrastructure.

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Functional Coatings

The aerospace, automotive, defense, and construction industries benefit from nanomaterials in the form of thermal barriers, corrosion-resistant layers, and wear-proof surfaces.
Nanoparticles can be applied in coatings and surfaces with antibacterial and antifungal properties for medical devices, technical textiles, building materials in healthcare and public environments.

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Optics, Photonics & Pigments

Nanomaterials unlock new possibilities in optics, photonics, and consumer products by manipulating light at the nanoscale. Their use in LEDs, laser components, optical coatings, security inks, and pigments enables vibrant color control, energy-efficient displays, and anti-counterfeiting technologies.

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Academic Research

Nanomaterials are key to innovation in academic research, government labs, and high-tech industries. They are crucial for advancing multifunctional systems across disciplines like materials science, physics, chemistry, and nanomedicine. Their versatility fuels exploration at the edge of what’s possible.

Potential applications

ICON

Catalysis & Photocatalysis

Nanomaterials are transforming the chemical, petrochemical, pharmaceutical, and environmental industries by making catalytic processes cleaner and more efficient.
Their photocatalytic capabilities also power air purification systems, self-cleaning surfaces, and solar-driven chemical production for a more sustainable future.

ICON

Sensors & Electronics

Across the automotive, environmental monitoring, and semiconductor sectors, nanomaterials enable compact, highly sensitive sensors and next-gen electronic devices.
From gas detectors to biosensors,  these technologies support innovations in industrial automation, and real-time environmental diagnostics.

ICON

Energy storage & Conversion

Nanostructured materials are central to energy storage and conversion technologies, including batteries, supercapacitors and fuel cells.
They're also key to solar energy conversion and hydrogen production, driving innovationin renewable energy infrastructure.

ICON coating

Advanced Coatings

The aerospace, automotive, defense, and construction industries benefit from nanomaterials in the form of thermal barriers, corrosion-resistant layers, and wear-proof surfaces.
Nanoparticles can be applied in coatings and surfaces with antibacterial and antifungal properties for medical devices, technical textiles, building materials in healthcare and public environments.

ICON

Optics, Photonics & Pigments

Nanomaterials unlock new possibilities in optics, photonics, and consumer products by manipulating light at the nanoscale.
Their use in LEDs, laser components, optical coatings, security inks, and pigments enables vibrant color control, energy-efficient displays, and anti-counterfeiting technologies.

ICON

Advanced Research & Emerging Technologies

Nanomaterials are foundational to innovation in academic research, government labs, and high-tech industries. They are crucial for advancing multifunctional systems across disciplines like materials science, physics, chemistry, and nanomedicine. Their versatility fuels exploration at the edge of what’s possible.

Some examples of our nanomaterials:

TiO2
ZrO2
CeO2
ZnO
Fe3O4
... & more

METAL OXIDES

SrTiO3
BaTiO3
LaCoO3
LawSrxCoyFezO3
La0.5Sr0.5MnO3
... & more

PEROVSKITES

LiFePO4
Ca5(PO4)3(OH)
... & more

PHOSPHATES

ZIF-8
... & more

MOFs

ZnS
RuS2
Ag2S
... & more

SULFIDES

3D molecular structure of titanium dioxide (TiO2) crystal lattice

METAL OXIDES

TiO2  |  ZrO |  CeO2  |  ZnO  |  Fe3O4 
and more

3D atomic structure model of a SrTiO3 perovskite crystal lattice

PEROVSKITES

SrTiO3 |  BaTiO3  | LawSrxCoyFezO3 | LaCoO3 and more

3D molecular structure of a metal-organic framework

MOFs

ZIF-8  and more

3D molecular structure model of AgPO4

PHOSPHATES

LiFePO | Ca5(PO4)3(OH) and more

Schematic crystal structure model of Zinc Sulfide (ZnS).

SULFIDES

ZnS | RuS2 | Ag2S and more

3D molecular structure of titanium dioxide (TiO2) crystal lattice
METAL OXIDES

TiO2  |  ZrO |  CeO2  |  ZnO  |  Fe3O4 and more

3D atomic structure model of a SrTiO3 perovskite crystal lattice
PEROVSKITES

SrTiO3  | BaTiO3  | LaCoO3 | La0.6Sr0.4Co0.2Fe0.8 and more

3D molecular structure of a metal-organic framework
MOFs

ZIF-8  and more

3D molecular structure model of AgPO4
PHOSPHATES

LiFePO|  Ca5(PO4)3(OH) and more

Schematic crystal structure model of Zinc Sulfide (ZnS).
SULFIDES

ZnS | RuS2 | Ag2S  and more

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our latest technology!

Inorganic DNA for products and materials

Elementag is our latest technology based on nanoparticles and it represents a radical innovation for traceability and authentication.
This nanomarker blends into any material or product to make it traceable and authentic, to fight against its counterfeiting. It's invisible to the naked eye, with no impact on performance and aesthetic, like an inorganic fingerprint. It becomes one with the matter itself and can be detected in few seconds with a portable scanner.

Welcome to the objects' identity era.
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