Molecular emitter synthesis
Optimizing chemical synthesis protocols for high-purity anthracene crystals doped with dibenzoterrylene for quantum optical applications.
I work at the intersection of quantum optics, nanoscale photonics, and solid-state emitters, with a current focus on DBT-doped anthracene molecular emitters and nanophotonic structures for brighter, cleaner single-photon collection.
I am a third-year PhD student at Purdue University in the Department of Electrical and Computer Engineering. My research focuses primarily on quantum optics and nanoscale photonics, with interest in quantum emitters, optoelectronics, and experimentally grounded device design.
My current work emphasizes molecular single-photon sources based on DBT-doped anthracene, nanophotonic architectures for emission enhancement, and practical interfaces between solid-state emitters and atomic systems.
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Optimizing chemical synthesis protocols for high-purity anthracene crystals doped with dibenzoterrylene for quantum optical applications.
Designing and fabricating photonic structures to enhance emission properties from DBT-based single-photon emitters.
Implementing active feedback and tuning mechanisms for photostable organic molecular systems to control optical response and stability.
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Full academic record with expanded research experience, conferences, publications, technologies, tools, and long-form project history.
Shorter resume version highlighting education, selected experience, publications, projects, and technical toolsets.
Public research profiles and the official Purdue email address for academic contact.
Publication and citation profile for research outputs in quantum photonics, optical materials, and related work.
Research profile with publication records, project visibility, and academic-networking context.
Persistent researcher identifier: 0000-0001-6252-0261.
For academic and research-related communication, use the Purdue address below.
Condensed from the uploaded CV/resume so the homepage reads cleanly.
Quantum optics and nanoscale photonics research focused on DBT-doped anthracene, nanophotonic emission enhancement, and active control of molecular optical response.
Developed SAT-solving neural-network methods and modeled thin-film WOLED/PVD deposition in non-conformal and anisotropic geometries.
Built and analyzed drone-based radio telemetry acquisition and DSP workflows for multi-transmitter wildlife tracking applications.
Integrated circuits and systems, SenseHawk ML/solar analytics, Stanford network-systems modeling, TIFR cryogenic Dewar work, and NIST cryogenics calculator software collaboration.
Add DOI/arXiv links later by replacing the placeholder # links.
Arya D Keni, Christian M Lange, Adhyyan S Mansukhani, Emma Daggett, Ankit Kundu, Ishita Agarwal, Patrick Bak, Benjamin Cerjan, Jonathan D Hood · arXiv quant-ph
Christian M Lange, Arya D Keni, Ishita Agarwal, Emma Daggett, Adhyyan S Mansukhani, Ankit Kundu, Benjamin Cerjan, Libai Huang, Jonathan D Hood · ACS Nano
Arya D Keni, Kinjol Barua, Khabat Heshami, Alisa Javadi, Hadiseh Alaeian · Optical Materials Express · Editor's Pick
Kinjol Barua, Samuel Peana, Arya D Keni, Vahagn Mkhitaryan, Vladimir M Shalaev, Yong P Chen, Alexandra Boltasseva, Hadiseh Alaeian · Communications Materials
Mahfuza Farooque, Arya D Keni · PSU Archive
Selected conference and poster presentations from the full CV, spanning quantum sensing, PVD process modeling, and SAT-solver neural heuristic work.
Quantum Sensing with Rydberg Excitons, QT06 topical cluster.
Simulation and Synthesis of Geometrical Coating Complexities in 3D Glass Substrates using PVD.
A brief overview of neural-network utilization for SAT solving, with M. Farooque.
Simulation and Synthesis of Geometrical Coating Complexities in 3D Glass Substrates using PVD.
Designed and simulated photonic crystal cavities to enhance emission from embedded quantum emitters using radial Bragg reflectors.
Engineered and optimized freeform microlens arrays for femtosecond laser-based two-photon polymerization fabrication.
Developed a simulation tool to model and analyze time-resolved emission dynamics of interacting quantum emitters.
Python, C, C++, LabVIEW, MATLAB, Julia, Markdown, LaTeX, R, Verilog.
Tidy3D, MEEP, Legume, Lumerical, COMSOL, QuTiP, GDSII, FPGA, CAD, Git, PyTorch, TensorFlow.
Pulsed and CW lasers, tunable lasers, EOM, AOM, microscopy, spectroscopy, single-photon detectors, polarimetry.
EBL, photolithography, spin-coating, metal deposition, HDPCVD, PECVD, ALD, ICP-RIE, SEM, AFM, EDX, XRD.
Reach out for quantum emitters, nanoscale photonics, nanofabrication, simulations, or molecular-photon interfaces.
West Lafayette, Indiana · Purdue University