Avantier Inc.
Over the past 25 years, optics have evolved dramatically—becoming smaller, smarter, and more efficient through advanced materials, AI integration, and improved manufacturing, enabling high-performance, scalable, and precise optical systems.
Photoacoustic microscopy (PAM) is a cutting-edge in vivo tissue imaging technique that combines optical and acoustic methods to break through the optical diffusion limit.
LiDAR VR/AR applications are taking augmented and virtual reality applications to the next level. Once far to expensive and bulky for consumer applications
Custom-designed F-theta objective lens used in “Optical-resolution parallel ultraviolet photoacoustic microscopy” [North Plainfield, New Jersey] – February 4th, 2025 – Avantier Inc. is pleased to announce that our custom-designed F-theta objective lens has been featured in a pioneering study on parallel ultraviolet photoacoustic microscopy (PUV-PAM) for rapid, slide-free imaging of tissues with irregular surfaces. The […]
Off-axis parabolic mirrors (OAPs) are a widely used type of aspherical mirror, known for their ability to converge and collimate light beams efficiently. These mirrors are designed by extracting a portion of a parent paraboloid, resulting in unique optical properties.
Off-axis parabolic (OAP) mirrors are indispensable components in modern optical systems, offering precision and versatility in a variety of applications.
Precision optical polishing refines optical surfaces to achieve exceptional smoothness, accuracy, and clarity, reducing surface defects and light scatter for high-performance imaging, laser, aerospace, and scientific applications.
FPM addresses the fundamental trade-off between resolution and field of view in conventional microscopy by combining principles of structured illumination, ptychography, and phase retrieval.
Gravitational wave detection represents one of the most groundbreaking advancements in modern astrophysics, driving the development of highly sophisticated technologies.
Space gravitational wave telescopes are designed to detect minuscule ripples in spacetime caused by gravitational waves. Under harsh space conditions, high precision optical components, radiation-resistant materials, and ultra-stable laser systems are required but also complicate production. Recent solutions in manufacturing, optics and advanced metrology have helped overcome challenges.
