Quantum dots (QDs) have emerged as powerful tools in the field of biomedical imaging, offering unparalleled capabilities for visualizing cellular and molecular processes at the nanoscale. These nanocrystals, with their size-dependent fluorescence properties, provide superior brightness, photostability, and tunable emission spectra compared to traditional organic fluorophores. In biological applications, quantum dots serve as contrast agents for fluorescence imaging, enabling researchers to track and study cellular activities with exceptional precision. One of the notable advantages of quantum dots in biomedical imaging is their potential for multiplexing – simultaneous detection of multiple targets. Through careful engineering of their surface chemistry, quantum dots can be functionalized with specific biomolecules, allowing selective binding to different cellular components. This ability opens doors for studying complex biological systems with a level of detail and specificity not achievable with conventional imaging agents. Furthermore, quantum dots hold promise in the field of theranostics, where they can be employed for both diagnostic imaging and targeted drug delivery. Their unique optical and surface properties make them versatile platforms for developing advanced, multifunctional nanomedicines. In summary, quantum dots are revolutionizing biomedical imaging by providing researchers with powerful and versatile tools for visualizing and understanding intricate biological processes, paving the way for advancements in diagnostics and targeted therapies.
Near-infrared (NIR) light exhibits distinct advantages, such as non-destructive interaction and deep tissue penetration, making it particularly suitable for real-time, non-invasive diagnostic…
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.…
Recently, the covering of InAs quantum dots (QDs) with AlAs capping layers (CLs) has attracted special attention as it has been shown to be an excellent way to enhance the photovoltaic efficiency in…
Self-assembled InAs/GaAs quantum dots (QDs) fabricated by the Stranski-Krastanov epitaxial growth mode have attracted great interest due to their enormous potential in a wide range of optoelectronic…
Sessions are CPD-accredited; certificates issued to every registered delegate within two weeks of the conference.
Oral and poster slots for original Quantum dots 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 Quantum dots 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 Quantum dots track is a dedicated stream within Materials 2027 covering the latest research, methods, and applications in Quantum dots. 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 Quantum dots 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 Quantum dots 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.
