Microplastics
Learn more about our microplastics research
RAMAN Imaging & Microplastics Analysis Facility
Learn more about our microplastics research
Single-cell analysis, Stable isotope assimilation, Intracellular 2-D and 3-D mapping, Disease diagnosis, & more
Customizable to fit your project's needs. Sample prep, Raman micro-spectroscopy, Atomic force microscopy
Learn more about our major accomplishments since our establishment in 2014
Here you can find detailed requirements for project-specific sample submission
Explore the current processing queue for our NARMIL research facility in real-time
Single-cell analysis, Stable isotope assimilation, Intracellular 2-D and 3-D mapping, Disease diagnosis, & more
Customizable to fit your project's needs. Sample prep, Raman micro-spectroscopy, Atomic force microscopy
Learn more about our major accomplishments since our establishment in 2014
Here you can find detailed requirements for project-specific sample submission
Explore the current processing queue for our NARMIL research facility in real-time
Our lab provides state-of-the-art instrumentation and expertise for analyses of single cells, aerosols, natural and engineered surfaces, minerals, biofilms, thin films, and novel synthetic materials. The lab’s vision is to offer unique analytical solutions to chronic limitations experienced in many research areas, to enable transformative discoveries, and to educate the next generation of scientists.
NARMIL is home to a Renishaw inVia Confocal Raman Microspectrometer and a Bruker Innova Atomic Force Microscope. These instruments can be operated independently or coupled for co-localization and Tip-enhanced Raman Scattering (TERS) and offer high performance, reliability, modular design, and user-friendly operating systems. The entire system is mounted on a floating 5’x8′ Newport INTEGRITY 3 vibration isolation table.
Learn more about our diverse RAMAN applications that can be catered to your project's molecular imaging needs. Processes that can be explored by our methods are only limited by your imagination.
Raman map of intracellular distributions of the lipid-like energy storage product, polyhydroxy-butyrate (red area with accompanying Raman spectrum) within a marine bacterium. Blue area is relatively rich in amino acids (blue spectrum) and proteins.
Examples of varying contributions of 12C-12C, 12C-13C, and 13C-13C isotopologues to shape, position, and areas of the n (C-C) and n (C=C) Raman spectral peaks for carotenoids of Synechococcus sp. cells assimilating varying amounts of DI13C.
A. 3-D chemical maps of a composite microplastic particle produced by Raman microspectroscopic volume mapping. B. Section of 3-D chemical map of the microplastic particle generated from diagnostic peaks of polypropylene (red), phthalocyanine blue copper (cyan), and polyethylene (purple).