Optoelectronic materials and devices represent a dynamic and interdisciplinary field at the forefront of modern technology, seamlessly integrating principles from optics and electronics to harness the unique properties of light for a myriad of applications. At its core, optoelectronics explores the interaction between light and electronic materials, paving the way for innovations in communication, energy, and sensing. The materials utilized in optoelectronic devices range from semiconductors to organic compounds, each selected for their ability to efficiently absorb, emit, or manipulate light. Seminal advancements in this field have led to the development of light-emitting diodes (LEDs), lasers, photodetectors, and solar cells, among others, with implications spanning from telecommunications to renewable energy. The foundation of optoelectronic devices lies in semiconductor materials like gallium arsenide, silicon, and organic polymers, which exhibit tunable electronic and optical properties. Quantum dots, nanowires, and 2D materials have emerged as promising candidates, allowing for precise control over the interaction of electrons and photons. These materials are engineered to facilitate the generation, transport, and detection of charge carriers in response to light stimuli. The synergy of materials science, quantum mechanics, and electronics enables the creation of devices that can emit coherent light, convert photons to electrical signals, and harvest solar energy with unprecedented efficiency.
Quantum dot light-emitting diodes (QLEDs) have emerged as pivotal candidates for next-generation displays, owing to their tunable emission wavelengths, narrow spectral bandwidth, high brightness, and…
This study presents a quantum-dot–enhanced heterogeneous photodiode based on an IGZO-Telluirum (Te) junction, engineered to function as an optoelectronic synapse for neuromorphic vision applications.…
Photoalignment and photopatterning has been proposed and studied for a long time. Light is responsible for the delivery of energy as well as phase and polarization information to materials systems.…
Heterostructure based devices has shown great potential in optoelectronic field especially in optical communication. Heterostructure optoelectronic devices have been fabricated with unique morphology…
Sessions are CPD-accredited; certificates issued to every registered delegate within two weeks of the conference.
Oral and poster slots for original Optoelectronic Materials and Devices work, reviewed by the scientific committee.
Meet materials researchers, engineers, and academics from around the world across three days.
Accepted abstracts appear in the indexed conference proceedings with a citable DOI.
Plenary lectures from leading voices shaping Optoelectronic Materials and Devices research and practice.
Attend in person in Singapore or join virtually — same programme, same certificate.
Oral and poster slots for your work — in person in Singapore or online. Not presenting? Attend as a delegate to learn from the field.
The Optoelectronic Materials and Devices track is a dedicated stream within Materials 2027 covering the latest research, methods, and applications in Optoelectronic Materials and Devices. It brings together researchers, engineers, and academics for oral presentations, posters, and discussion.
Materials researchers, engineers, educators, doctoral students, and R&D leaders with an interest in Optoelectronic Materials and Devices are all welcome — whether presenting or attending.
Yes. Submit an abstract for oral or poster presentation. All submissions are peer-reviewed by the scientific committee; accepted abstracts appear in the indexed proceedings.
Yes. Materials 2027 is a hybrid conference — attend the Optoelectronic Materials and Devices track in person in Singapore or join live online, with on-demand access afterward.
Singapore · March 18–20, 2027· Hybrid · in-person & virtual
Attend without presenting.
