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Self-assembly of nanostructures with multiferroic components using nucleic acid linkers

  • Ferman A. Chavez (a1) and Gopalan Srinivasan (a2)

Abstract

Self-assembly of multiferroic oxide composites by chemical and biochemical methodology is discussed. The approach involves covalently attaching organic functional groups or oligomeric DNA/RNA to the nanoparticles (NPs). The organic functional groups are only reactive toward functional groups located on different NPs. Using oligomeric DNA/RNA, one could program NPs to only interact with particles possessing complementary DNA/RNA. We have applied both concepts to the assembly of nanostructures with ferrites for the ferromagnetic phase and barium titanate for the ferroelectric phase. The assembled core–shell particles and superstructures obtained in a magnetic field show evidence for strong interactions between the magnetic and ferroelectric subsystems.

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Corresponding author

Address all correspondences to either F. A. Chavez at chavez@oakland.edu or G. Srinivasan at srinivas@oakland.edu

References

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Self-assembly of nanostructures with multiferroic components using nucleic acid linkers

  • Ferman A. Chavez (a1) and Gopalan Srinivasan (a2)

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