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URMC / Labs / Benjamin Miller Lab / Lab Members

 

Lab Members

 

Principal Investigator

Benjamin Miller
Benjamin L. Miller, Ph.D.
MC 6-6820
Phone: (585) 275-9805
Email Benjamin

Research Staff

Alanna Klose

Alanna M. Klose
Technical Associate
MC 5-8527
Phone: (585) 273-2149

Research Interest: Measuring circulating antibodies in human serum using arrayed imaging reflectometry (AIR), a label free multiplex optical biosensor.

Ethan Luta

Ethan Luta
Laboratory Technician

Research Interest: Development and synthesis of sorbent polymers for the detection of analytes of interest in the fields of medicine, agriculture, environment, and biological and chemical warfare agent detection. Incorporating sorbent polymers into our current sensing platforms will enable the improvement in the specificity and selectivity compared to current photonic sensing platforms.

Postdoctoral Associates

Michael Bryan
Michael Bryan, M.S.
BSCB Biophysics, Structural & Computational Biology Ph.D. Program

Research Interest: Integration of Silicon Nitride Photonic Microring Resonators for Sensing and Spectrometry to Detect Biologically Relevant Protein Targets
John Cognetti
John Cognetti
BME Biomedical Engineering Ph.D. Program

Research Interest: Organ chips, which seek to mimic appropriate physiological complexity of humans in an in vitro setting, use microfluidics and microfabrication techniques to obtain unique physiological information from cells. My work involves utilizing photonic biosensors to measure the diverse secretory profile of cells in real time in a hybrid optical/microfluidic platform. I am currently applying this technology to understanding neurodegenerative processes in Alzheimer’s and Parkinson’s Disease in a cellular model of the blood-brain barrier.
Daniel Steiner
Daniel J Steiner, M.S.
BSCB Biophysics, Structural & Computational Biology Ph.D. Program

Research Interest: Photonic sensors at the Point-of-Care: Diagnostics at the Point-of-Care are of considerable interest to modern healthcare. Taking a multidisciplinary approach using photonic integrated circuits, (microchips that guide light instead of electrons) in a disposable format, I’m working to create an inexpensive sensing platform that quantitatively measures biological targets on disposable substrates.

Graduate Students

Diego Arévalo
Diego Arévalo
Chemistry Ph.D. Program

Research Interest: Expanding the chemical toolbox for RNA recognition: My research is devoted to developing a synthetic scaffold that will expand the known chemical space for RNA recognition efforts. This scaffold will be used to generate a Resin-Bound Dynamic Combinatorial Library to identify high affinity compounds for the C-C Chemokine Receptor type 5 (CCR5) mRNA, a coreceptor for HIV-1 for entry into CD4 T cells.
Joseph Bucukovski

Joseph Bucukovski
BSCB Biophysics, Structural & Computational Biology Ph.D. Program

Research Interest: Integrating photonic biosensors into organ-on-chip (OoC) systems. I am specifically interested in obtaining real-time measurements of SASP cellular secretion in a microphysiological model of tendon injury with and without the presence of drug treatment.

 
Jordan Butt

Jordan Butt
Chemistry Ph.D. Program

Research Interest: My research is focused on using integrated photonic circuits for the detection of biomedically relevant molecules. More specifically, advancing Waveguide Enhanced Raman Spectroscopy for small molecule detection and Ring Resonators for larger molecule detection.

 
Katie Daniel

Katie Daniel
BME Biomedical Engineering Ph.D. Program

Research Interest: Photonic sensor-integrated organ-on-a-chip systems for monitoring drug efficacy in disease models.

 
Alexander Evans
Alexander Evans
BME Biomedical Engineering Ph.D. Program

Research Interest: I am interested in photonic biosensors to detect respiratory viruses. I am currently working with HIV, but plan to expand to detect COVID-19, Flu, and RSV.
Gabrielle Kosoy
Gabrielle Kosoy
BSCB Biophysics, Structural & Computational Biology Ph.D. Program

Research Interest: Using sensor arrays to understand the immune response to flu: The human immune system response to influenza virus is complex and thus not well understood. I am using Arrayed Imaging Reflectometry (AIR) technology to create arrays of flu surface proteins as well as arrays of whole virus to understand the antibody response to antigen presented in a three-dimensional context.
Elinore Vangraafeiland
Elinore Vangraafeiland
BMB Biochemistry & Molecular Biology Ph.D. Program

Research Interest: Developing methods of targeting programmed ribosomal frameshifting in HIV and SARS-CoV-1
Pengyi Wang
Pengyi Wang
BME Biomedical Engineering Ph.D. Program

Research Interest: Detection of biomolecules and other molecules such as therapeutics, drugs of abuse, and environmental pollutants is important to understanding our health. Devices which are easy to operate yet can provide reliable results for such detection are in huge demand. Current detection methods are either too expensive or complicated, or limited to a small category of molecules. To bridge this gap, my research is focused on platforms for the point-of-care (POC) for multiplexed detection of small molecules and biomarkers (e.g. inflammatory biomarkers).
 
The first platform is expanding applications of Arrayed Imaging Reflectometry (AIR) developed in the Miller lab. AIR has been able to detect small-molecules and larger-molecule protein biomarkers separately in slightly different approaches. By combining the two approaches together, AIR can perform small-molecule drug and protein biomarker detection at once. The second platform is sorbent polymer-coated Waveguide-Enhanced Raman Spectroscopy (WERS) on a reusable integrated photonic chip. Raman spectroscopy can identify analyte molecules by their unique spectral features and has been studied as a potential diagnostic tool, using the evanescent field to excite and collect the Raman signal of the molecule selectively absorbed by the coated polymer of the waveguide. The tiny size and low power requirement makes WERS ideal for POC, and selective signal enhancement increases its sensitivity.