Data output from experiment and theory sub projects around quantum enhanced sensors. Using quantum states of light to enhance optical measurement precision and accuracy.
Raffaelli, F., Ferranti, G., Mahler, D., Sibson, P., Kennard, J., Santamato, A., Sinclair, G., Bonneau, D., Matthews, J. & Thompson, M. G., 7 Feb 2018, In: Quantum Science and Technology.3, 2, 9 p., 025003.
Research output: Contribution to journal › Article (Academic Journal) › peer-review
Open Access
File
133Citations
(Scopus)
557Downloads
(Pure)
Cite this
DataSetCite
Raffaelli, F. (Creator), Ferranti, G. (Creator), Mahler, D. (Creator), Sibson, P. (Creator), Kennard, J. (Creator), Santamato, A. (Creator), Sinclair, G. (Creator), Bonneau, D. (Creator), Thompson, M. (Creator), Matthews, J. (Creator), Matthews, J. (Data Manager) (5 Jan 2018). A Homodyne Detector Integrated onto a Photonic Chip for Measuring Quantum States and Generating Random Numbers. University of Bristol. 10.5523/bris.2zoorhel0xbsr2dbosecymaocl