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Kartik Srinivasan

Adjunct Professor

Fellow
Kartik Srinivasan portrait

Contact Information

UMD

Email:
kartiks@umd.edu
Office:

University of Maryland

2102 Atlantic Building

College Park, MD 20742

Office Phone:
(301) 405-8934
Lab:
PSC B0150

NIST

Email:
kartik.srinivasan@nist.gov
Office:

National Institute of Standards and Technology

100 Bureau Drive Stop 6811

Building 216, Rm B157

Gaithersburg, MD 20899

Office Phone:
(301) 975-5938

Additional Info

CV:
KS_CV_Mar2020.pdf

About

Kartik is a Fellow of the JQI and the NIST Microsystems and Nanotechnology Division. He received his undergraduate and graduate degrees in Applied Physics from Caltech and worked there as a postdoctoral scholar before moving to NIST in 2007. He joined the JQI in 2019.

 

Research Areas: 

  • Integrated photonics design/fab/test
  • Integrated quantum photonics
  • Nanoscale electro-optomechanical transducers
  • Nonlinear nanophotonics

Research Groups

Recent Publications

Recent News

  • Five glowing rings with flame like filaments in a row against a black background. From left to right they are reddish-orange, orange, yellow, green and a greenish-blue.

    Tiny New Lasers Fill a Long-Standing Gap in Visible-Light Colors, Opening New Applications

    September 3, 2024
  • close up of a grid of rings with light swirling inside and spikes jutting out representing the elements of a frequency comb

    New Photonic Chip Spawns Nested Topological Frequency Comb

    June 20, 2024

    In new work, researchers at JQI have combined two lines of research into a new method for generating frequency combs.

  • Red light forms a cone above a glowing point in the center of concentric rings. A square to the right shows a closeup of a dot in the center of red concentric rings.

    Bullseye! New Method Accurately Centers Quantum Dots Within Photonic Chips

    March 22, 2024

    Researchers at JQI and the National Institute of Standards and Technology (NIST) have developed standards and calibrations for optical microscopes that allow quantum dots to be aligned with the center of a photonic component to within an error of 10 to 20 nanometers (about one-thousandth the thickness of a sheet of paper). Such alignment is critical for chip-scale devices that employ the radiation emitted by quantum dots to store and transmit quantum information.