Research Theme 2: Heterointegration
Research Theme 2: Heterointegration
Research Theme 2 (RT-2) includes teams that are taking the new materials synthesized in RT-1 and using sophisticated equipment and techniques to place and pattern them with exquisite levels of precision, enabling the building of new device architectures.
The different approaches being brought together in RT-2 are enabling the scalable integration of colloidal quantum dots into device structures. If we are to build new optoelectronic technologies and applications, we need to have reliable, scalable, and accurate techniques to integrate the new materials made by RT-1 into existing or new electronic device structures. This enables architectures for linear, non-linear, and quantum optoelectronic devices.
Once these new materials have been integrated into device architectures, members of the RT-2 team investigate how these new materials interact with the surroundings, exploring the behavior of the excitons, spins, and charges within and across the interfaces of the new materials. This can help the investigators better understand and optimize the materials.
RT-2’s collaborations with RT-1 inform the design new materials that are optimized for accurate placement. RT-2’s collaborations with RT-3 inform the properties of the device and develop new placements and patterns of materials based on their properties.
Find out more about the IMOD members participating in RT-2 research, and check out some of the recent RT-2 publications.
RT-2 Research Groups

Faculty
Bassett Group

Faculty | Associate Director of Communications | RT2 Deputy Director
Correa-Baena Group

Faculty
Dukovic Group

Faculty | Center Director
Ginger Group

Faculty | RT2 Lead
Kagan Group

Faculty
MacKenzie Group

Faculty | Deputy Director
Marder Group

Faculty
Mohite Group

Faculty | Associate Director of Workforce Recruitment
Rappe

Faculty | Associate Director of Center Integration
Reichmanis

Faculty
Talapin Group
Recent RT-2 Publications

Trion Formation Hampers Single Quantum Dot Performance in Silane-Coated FAPbBr3 Quantum Dots
NANO LETTERS 2026, 26, 14, 4855–4865
https://doi.org/10.1021/acs.nanolett.6c00643

All-Inorganic, Bicontinuous, Bandgap-Engineered Epitaxially-Fused PbSe Quantum Dot/CdS Matrix Heterostructures for Optoelectronic and Electronic Applications
ACS NANO 2026, 20, 12, 10138–10150
https://doi.org/10.1021/acsnano.6c01036

Intrinsically Weak Polarization in (4-(Aminomethyl)piperidinium) SnI4
CHEMISTRY OF MATERIALS 2026, 38, 6, 2836–2844
https://doi.org/10.1021/acs.chemmater.5c03194

Structural and Compositional Evolution of Colloidal In1–xGaxP1–yAsy Nanocrystals during Cation Exchange Revealed by Electron Microscopy
ACS NANO 2026, 20, 7, 5506–5517
https://doi.org/10.1021/acsnano.5c15614

Influence of Ligand Exchange on Single Particle Properties of Cesium Lead Bromide Quantum Dots
CHEMISTRY OF MATERIALS, 2026, ASAP
https://doi.org/10.1021/acs.chemmater.5c02233

Cavity-Mediated Radiative Energy Transfer Enables Stable, Low-Threshold Lasing in Hybrid Quantum Dot-Nanoplatelet Supraparticles
ACS NANO 2026, 20, 2, 2114–2124
https://doi.org/10.1021/acsnano.5c15222

Free space few-photon nonlinearity in critically coupled polaritonic metasurfaces
NATURE COMMUNICATIONS 2025, 16, 10099
https://doi.org/10.1038/s41467-025-65088-1

Hydrazine-free precursor for solution-processed all-inorganic Se and Se1−xTex photovoltaics
JOURNAL OF MATERIALS CHEMISTRY, 2025,13, 36953-36962
https://doi.org/10.1039/D5TA06459G

Deterministic Printing of Single Quantum Dots
ADVANCED MATERIALS, 2005, 38, 3, e13707
https://doi.org/10.1002/adma.202513707

33 Unresolved Questions in Nanoscience and Nanotechnology
ACS NANO 2025, 19, 36, 31933–31968
https://doi.org/10.1021/acsnano.5c12854

Point Defect Induced Potential Wells across the m-Plane of Core/Shell GaN Nanowires
PHYSICA STATUS SOLIDI RAPID RESEARCH LETTERS, 2025, 2500145
https://doi.org/10.1002/pssr.202500145

Chiral Quantum Optics: Recent Developments and Future Directions
PRX QUANTUM, 2025, 6, 020101
https://doi.org/10.1103/PRXQuantum.6.020101