Optics & Photonics

Baikowski® and Mathym® provide raw materials such as Spinel, High Purity Alumina, YAG and nanodipersions with high refractive index and transparency for various applications of optics and photonics

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Advanced HPA, YAG, Spinel, and Nano-zirconia solutions for Optics and Photonics

Optics and photonics deal with light and its properties. However optics focuses on light behaviour, such as rays and waves, whereas photonics emphasizes the quantum nature of light, such as photons and lasers. In order to provide solutions that offer outstanding characteristics for both, optics and photonics markets, our R&D teams develop products with controlled size distribution, high crystallinity, phasic and chemical purity.

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Baikowski® High Purity Alumina, spinel and YAG solutions for optics and photonics materials

Inorganic detectors: 4N submicron aluminate powders & doping solutions

Thanks to their refractive index, transparency, hardness, and chemical stability, Baikowski®’s submicron aluminate powders are suitable for various optical components production:

🌟 High purity alumina, known for its excellent mechanical and thermal stability, is extensively used in optical windows, infrared lenses, high-power laser systems…..

🌟 Spinel, renowned for its optical transparency, durability, and resistance to harsh environments, is utilized for example in optical domes and laser gain media.

As to Phosphors such as:

🌟 YAG and LuAG,they exhibit exceptional luminescent properties and can convert light of one wavelength into light of another wavelength. They are employed in lighting technologies and displays, including LED lighting and optoelectronic devices.

They drive innovation in the optics and photonics market, enabling advancements in fields like telecommunications, biomedical imaging, military technology, and more.

Download our Inorganic Detectors White Paper

Mathym® nano-zirconia and ceria potential for optics and photonics applications

Mathym® Research and Development efforts are uncovering new avenues to exploit nano-oxides such as their commercial nano-zirconia solutions, but also nano-ceria as R&D products, that are already shaping the future of optical technologies :

🌟 Nano-zirconia has good transparency across a wide range of wavelengths, including the visible and near-infrared regions. Its high refractive index make it valuable for the production of lenses and optical fibers. zilight® from Mathym® is as small as 5nm and meets high-end optical applications where small particle size is key.

🌟 Nano-ceria exhibits good transparency in the UV and visible range, making it suitable for optical components such as lenses, windows, and filters from optical surfaces. It can act as an effective catalyst, which can be advantageous in certain photonics and optoelectronic applications. Mathym® nano-ceria is available as R&D samples and exhibits Key charaterisitcs for these applications such as high crystallinity, low organic content and narrow size distribution.

From refractive index adjustment between optical films to the design of transparent materials pushing the upper limits of refractive index, these advanced products will play a significant role in the optical industry. Anti-reflection coatings, display applications such as microLED, AR / VR / MR, OLED and LED lighting, optical components such as telescope lenses, and optical sensors are some of the technologies that can benefit from their superior optical performance and ease of processing.

Mathym® nanodispersions are compatible with various manufacturing processes including dip and spin coating, nanoimprint lithography, inkjet printing and screen printing. They are engineered to be incorporated in the formulations of coatings, inks, adhesives, and molding compounds.

When nanoparticles are integrated into nanoscale structures or coatings, they enable the miniaturization of optical devices and integration with other technologies. This can facilitate the development of compact and multifunctional optoelectronic devices.

How oxide coatings can enhance optical properties?

Oxides can be applied as a thin film coating to enhance various optical properties. In this context, nanoparticles can serve as nanofillers in optical coatings by allowing precise control over the coating’s performance. They can help reinforce the matrix material, improving its mechanical strength, thermal stability and refractive index.

The following examples illustrate the potential sensor applications of oxide coatings :

ceramic coating for oxygen sensor

  • With tailored refractive indices, oxide coatings can suppress unwanted reflections on the optical sensor surface, increase sensitivity and signal-to-noise ratio. This is particularly useful in sensors that require high precision and accuracy, such as spectrometers or optical gas sensors.
  • Oxide coatings can also be used to create optical filters that selectively transmit or block specific wavelengths of light. Examples include fluorescence sensors, where an oxide coating can filter out excitation light and only transmit the emitted fluorescence signal for detection.
  • Moreover, oxide coatings can be engineered to enhance the Raman scattering signal of molecules adsorbed on their surface. This enables highly sensitive detection and identification of trace amounts of substances, making them suitable for applications such as chemical sensing or environmental monitoring.

The role of oxides in the optical polishing process

Oxides have abrasive properties whose choice depends on the nature of the material to be polished. By smoothening irregularities and minimizing optical surface roughness, a kiss polishing with nanoparticles results in improving the light transmission quality.

Thanks to a more uniform and controlled removal rate, nanoparticles can also reduce the time required for achieving the desired surface finish.

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🌟 Do not hesitate to contact us for tailor-made solutions.🌟

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