4.8 Article

Multivalent Dendritic Molecules as Broad Spectrum Bacteria Agglutination Agents

Journal

THERANOSTICS
Volume 3, Issue 9, Pages 658-666

Publisher

IVYSPRING INT PUBL
DOI: 10.7150/thno.6811

Keywords

agglutination; bacteria; molecular imaging; multivalency; zinc(II)-dipicolylamine

Funding

  1. NIH [GM 059078]
  2. Walther Cancer Foundation
  3. University of Notre Dame
  4. Notre Dame Integrated Imaging Facility
  5. Freimann Life Sciences Center

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This study reports the first set of synthetic molecules that act as broad spectrum agglutination agents and thus are complementary to the specific targeting of antibodies. The molecules have dendritic architecture and contain multiple copies of zinc(II)-dipicolylamine (ZnDPA) units that have selective affinity for the bacterial cell envelope. A series of molecular structures were evaluated, with the number of appended ZnDPA units ranging from four to thirty-two. Agglutination assays showed that the multivalent probes rapidly cross-linked ten different strains of bacteria, regardless of Gram-type and cell morphology. Fluorescence microscopy studies using probes with four ZnDPA units indicated a high selectivity for bacteria agglutination in the presence of mammalian cells and no measurable effect on the health of the cells. The high bacterial selectivity was confirmed by conducting in vivo optical imaging studies of a mouse leg infection model. The results suggest that multivalent ZnDPA molecular probes with dendritic structures have great promise as selective, broad spectrum bacterial agglutination agents for infection imaging and theranostic applications.

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