The aim is to explore the transition from discrete macrocycles to interlocked architectures to improve luminescent properties.
Utilized topological engineering to design and synthesize chiral metallomacrocycles.
Transitioned to interlocked architectures for testing luminescent performance.
Demonstrated effective enhancement of circularly polarized luminescence in new structures.
Abstract
. In any case, this upgrading approach from discrete macrocycles to interlocked architectures opens a new avenue for developing high-performance emitting materials and devices.