Publications

scientists have developed organic molecules that can glow brightly and be used in advanced quantum technologies

Researchers have unveiled a new family of nanographene materials with the help of the Cobolt Mambo 594 nm laser.

Scientists at the KTH Royal Institute of Technology in Sweden, and Calico Life Sciences, have made significant strides in cellular imaging.

Researchers at the University of Cambridge have unveiled a computational suite for the structural and functional characterization of amyloid aggregates.

Researchers from Cambridge University have made breakthrough in Alzheimer's disease by using super-resolution microscopy.

Researchers have uncovered new findings on how bacterial proteins work together to transport sialic acid across cell membranes.

Skin, the body's natural armor, relies on its unique mechanical and elastic properties to fend off external pressures. Understanding how these traits stem from collagen and elastin fibers is pivotal for crafting biomimetic materials and enhancing skin regeneration.

A new study published in the journal of Nanomaterials explores the potential of a material known as Cu2ZnSnS4 (CZTS) for use in solar cells and as a potential thermoelectric material.

In a significant stride towards the future of augmented reality (AR) and virtual reality (VR), Reality Labs Research at Meta, in collaboration with Seoul National University, have unveiled a groundbreaking compact holographic near-eye display concept using our Cobolt Samba 532 nm laser. This prototype addresses critical challenges faced by current technologies, promising immersive and comfortable visual experiences for users.

In a groundbreaking development for quantum computing, researchers at Delft University of Technology in the Netherlands, i collaboration with Sweden-based manufacturing company QTECH Group, have unveiled a promising strategy for multi-qubit quantum registers with our Cobolt 06 MLD 515 nm laser.

LIBS imaging is revolutionizing our ability to analyze elemental and mineralogical distribution within samples.

In the realm of live-cell microscopy, fluorescence techniques have long dominated, yet challenges persist due to bleaching and motion blur caused by extended integration times, which hinders investigations of minute objects. However, a breakthrough has emerged with Rotating Coherent Scattering (ROCS) microscopy, enabling high-contrast, label-free imaging of live cells with unprecedented speed and resolution.

In a recent investigation, researchers at The Munich Center for Quantum Science and Technology, in collaboration with the Technical University of Munich in Germany use our C-WAVE Tunable laser to delve into the nuanced contrasts observed in the electrical and optical readout of NV centers in diamond, shedding light on their dependence on optical excitation wavelength and various excitation schemes.

Researchers in Japan have uncovered a pivotal aspect of optical parametric generators: the phenomenon of bunching caused by ultrafast intensity fluctuations. This mechanism, previously recognized for enhancing nonlinear interactions between light and matter, has now been investigated in the context of sufficiently intense light pulses crucial for biological nonlinear imaging.

VALO femtosecond lasers are unlike any other femtosecond laser. The very clean ultra short pulse durations of < 50 fs give huge advantages. Read more in the post!

As quantum technologies is something we strongly believe in, we are happy to be a sponsor for this years event of Photonics for Quantum.

Read our latest article on Physics World to understand how the new partnership between VALO Innovations and HÜBNER Photonics will give increased access to new femtosecond laser technology to many exciting applications.