Sharlee Mahoney Dept of Chemical and Petroleum Engineering Dr. Patrick Johnson.

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Presentation transcript:

Sharlee Mahoney Dept of Chemical and Petroleum Engineering Dr. Patrick Johnson

 Vibrational spectroscopic technique  Inelastic scattering ◦ 1/1,000,000 photons scattered ΔEΔE

 Use Au, Ag or Cu surfaces  intensity enhancement ◦ Typical ~ enhancement  Localized surface plasmons laser=

 Diagnostic technique ◦ Non-invasive ◦ Quick detection ◦ Accurate  Allow capture of biomolecules ◦ Antibodies/Antigens ◦ Viruses (DNA) ◦ miRNA  Need long shelf life

 60 nm Gold Nanoparticle (GNP) ◦ SERS surface  Capture Antibody ◦ Provides specificity for target analyte  Analyte  Label Antibody ◦ Free in solution ◦ Raman dye

 Dye library ◦ 20+ dyes ◦ Identify characteristic peaks ◦ Solubility ◦ Examples:  Nile Blue  IR-792  Multiplex ◦ 3-5 dyes detected simultaneously ◦ Raman spectrum has narrow spectral peaks  Malachite Green-ITC  Methylene Blue

60 nm GNP 785 nm laser

 Characteristic Peaks: ◦ 650 cm -1 ◦ 1190 cm -1 ◦ 1405 cm -1 ◦ 1600 cm cm cm cm cm -1

 Characteristic Peaks: ◦ 455cm -1 ◦ 788 cm -1 ◦ 1425 cm -1 ◦ 1650 cm cm cm cm cm -1

A. Multiplex B. Methylene Blue (MB) C. Nile Blue (NB) D. Janus Green (JG) MB NBMBJG

MG NBIR MGIR IRNBMG A. Multiplex B. Malachite Green-ITC (MG) C. IR-792 (IR) D. Nile Blue (NB )

A. Multiplex B. Brilliant Green (BG) C. Janus Green (JG) D. Methylene Blue (MB) E. Nile Blue (NB) A B C D E BG JG NB MB

 Janus Green silica coated nanoparticles  Capable of detection for 7 days

 Successful dye library for 20+ dyes ◦ Concentration range 1 mM to 1 pM ◦ Characteristic peaks identified  Successful multiplexing ◦ 3 dye combination ◦ 4 dye combination  Silica covered nanoparticles ◦ 1 stable dye

 Quantifying dilution series of dyes  Multiplexing with silica encapsulated gold nanoparticles

 Dr. Patrick Johnson  Ashley Driscoll  EPSCoR  Lab Group:  Dr. Mark Harpster  Tommy Servantez  Jing Neng  Travis Wells  Kevin Schilling  Joo Seob Lee