Matthew Pooley
Matthew Pooley, Ph.D.
Senior Scientist
Electrical Engineering & Computer Science
  • New York

Dr. Pooley has a background in solid-state physics and semiconductors, with 6 years experience fabricating, characterizing, and modeling semiconductor optoelectronic devices. His work has involved novel research to develop technology for quantum computing, as well as creating tools to model established consumer products such as transistors, LED lighting, photodiodes, and photovoltaic cells.

Dr. Pooley completed his Ph.D. in the Semiconductor Physics Group at the University of Cambridge, UK, in conjunction with Toshiba Research Europe Ltd. His work focused on developing components for optical quantum computing using single quantum dots embedded within semiconductor diode structures. This involved fabricating the devices in a cleanroom environment, as well as performing electrical and optical characterization measurements, before proceeding to conduct a range of novel experiments that led to 7 publications in respected journals. He has significant experience in a wide range of semiconductor fabrication methods, including: sample cleaning and preparation, wafer cleaving, photolithography, metal deposition, etching, and device bonding/packaging. He also has extensive experience in a range of spectroscopy, optical measurement, and material characterization techniques including, photoluminescence (PL), micro-PL, electro-PL, time-resolved PL, Fourier transform infrared spectroscopy (FTIR), photon correlation measurements such as HBT and HOM interferometry, atomic force microscope (AFM) imaging, and scanning tunneling microscope (STM) imaging. 

In addition to his semiconductor fabrication and optical measurement skills, Dr. Pooley has a strong background in scientific programming and numerical simulation methods. He has developed systems for automatic data acquisition and processing, such as a piezo feedback system to stabilize alignment in optical measurements with long acquisition times, and analysis tools for easily extracting figures of merit from data sets using fits to mathematical models. Before joining Exponent he worked for COMSOL, where he developed the semiconductor module of their finite element simulation software.

CREDENTIALS & PROFESSIONAL HONORS

  • Ph.D., Physics, University of Cambridge, England, 2013
  • M.Sci., Physics (Honours, 1st Class), University of Nottingham, UK, 2009

Publications

Pooley MA, Bennett AJ, Stevenson RM, Farrer I, Ritchie DA, Shields AJ. Energy-tunable quantum dot with minimal fine structure created by using simultaneous electric and magnetic fields. Physical Review Applied 2014; 1:024002.

Pooley MA, Bennett AJ, Farrer I, Ritchie DA, Shields AJ. Engineering quantum dots for electrical control of the fine structure splitting, Applied Physics Letters 2013; 103:031105

Bennett AJ, Pooley MA, Cao Y, Skold N, Farrer I, Ritchie DA, Shields AJ. Voltage tunability of single-spin states in a quantum dot, Nature Communications 2013; 4:1522

Pooley MA, Ellis DJP, Patel RB, Bennett AJ, Chan AKH, Farrer I, Ritchie DA, Shields AJ. Controlled C-NOT gate operating with single photons. Applied Physics Letters 2012; 100:211103.

Bennett AJ, Pooley MA, Stevenson RM, Farrer I, Ritchie DA, Shields AJ. Free induction decay of a superposition stored in a quantum dot, Physical Review B; 84:195401.

Boyer de la Giroday A, Bennett AJ, Pooley MA, Stevenson M, Skold N, Patel RB, Farrer I, Ritchie DA, Shields AJ. All-electrical coherent control of the exciton states in a single quantum dot, Physical Review B 2010; 82:241301

Bennett AJ, Pooley MA, Stevenson RM, et al. Electric-field-induced coherent coupling of the exciton states in a single quantum dot. Nature Physics 2010; 6:947–951.

Selected Conference Presentations

Pooley MA, Bennett AJ, Stevenson RM, et al. Coherent electrical manipulation of a quantum dot qubit. APS March Meeting, Boston, MA, 2012.

Pooley MA, Bennett AJ, Stevenson RM, Ward MB, Patel RB, Boyer de la Giroday A, Skold N, Farrer I, Nicoll CA, Ritchie DA, Shields AJ. Observation of anticrossings in the exciton state of single quantum dots via electrical tuning of the fine-structure splitting. Journal of Physics: Conference Series 2011; 286:012026


Professional Affiliations

Institute of Physics, member (#1119010)

Knowledge