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Boulat Bash is an assistant professor in the Department of Electrical and Computer Engineering, joining the university after working at Raytheon BBN Technologies in Cambridge, Massachusetts, for three and a half years. He earned an undergraduate degree in economics at Dartmouth College, and his MS and PhD degrees in computer science at the University of Massachusetts Amherst. Bash’s research is focused on covert communications, which involves not only protecting the content of communications from adversaries, but keeping adversaries from detecting that communication is happening at all. Bash has authored or co-authored 26 journals, conference articles and technical reports and has one patent.Show Less
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Courses
- ICIntroduction to Communications
- DEESDetection and Estimation in Engineering Systems
- QSQMLQuantum Sensing and Quantum Machine Learning
Grants
- Collaborative Research: HSI Implementation and Evaluation Project: Quantum Que: Institutional Support for Transfer Students' Success in Quantum, Information Science and Engineering
Co-Investigator (COI)
2022
$733.4K
Active - U.S.-Ireland R&D Partnership: Collaborative Research: CNS Core: Medium: A Unified Framework for the Emulation of Classical and Quantum Physical Layer Networks
Principal Investigator (PI)
2021
$345.4K
Active - NSF Engineering Research Center for Quantum Networks (CQN)
Co-Investigator (COI)
2020
$14.9M
Active - Center for Quantum Networks (CQN) Industrial Partners Program
Co-Investigator (COI)
2020
$1.2M
Active - NSF Engineering Research Center for Quantum Networks (CQN)
Co-Investigator (COI)
2020
$668.4K
Active - FET: Small: Quantum-Secure Quantum-Enhanced Covert Networks Over Generalized Bosonic Channels
Principal Investigator (PI)
2020
$558.0K
Active - NSF Engineering Research Center for Quantum Networks (CQN)
Co-Investigator (COI)
2020
$500.6K
Active - NSF Engineering Research Center for Quantum Networks (CQN)
Co-Investigator (COI)
2020
$398.5K
Active - NSF Engineering Research Center for Quantum Networks (CQN)
Co-Investigator (COI)
2020
$292.9K
Active - NSF Engineering Research Center for Quantum Networks (CQN)
Co-Investigator (COI)
2020
$292.0K
Active
Technologies / Patents
Publications (54)
Recent
- Bayesian minimum mean square error for transmissivity sensing
2023
- Capacity Bounds for Identification With Effective Secrecy
2023
- Performance of Quantum Preprocessing under Phase Noise
2022
- Quantum-Enhanced Transmittance Sensing
2022
- Demonstration of Entanglement-Enhanced Covert Sensing
2022
- Experimental Entanglement-Enhanced Covert Sensing
2022
- Robust Adaptive Quantum-Limited Super-Resolution Imaging
2022
- Demonstration of quantum-optimum entanglement-enhanced covert sensing
2022
- Transceiver designs to attain the entanglement assisted communications capacity
2022
- Fundamental Limits of Thermal-noise Lossy Bosonic Multiple Access Channel
2022
- Performance analysis of free-space quantum key distribution using multiple spatial modes.
2021
- Fundamental Limits of Bosonic Broadcast Channels
2021
- Capacity Theorems for Covert Bosonic Channels
2021
- Fundamental Limits of Loss Sensing over Bosonic Channels
2021
- Signaling for Covert Quantum Sensing
2021
- Entanglement Assisted Covert Communication and its Coding Limits over Bosonic Channels
2020
- Covert Capacity of Bosonic Channels
2020
- Entanglement-Assisted Quantum-Secure Covert Communication
2020
- 2020 Index IEEE Journal on Selected Areas in Communications Vol. 38
2020
- Covert sensing using floodlight illumination
2019
- Average Worst-Case Secrecy Rate Maximization Via UAV and Base Station Resource Allocation
2019
- Fundamental limits of quantum-secure covert communication over bosonic channels
2019
- Covert sensor
2019
- Multi-hop routing in covert wireless networks
2018
- Covert wireless communication with artificial noise generation
2018
- Covert Communications in a Dynamic Interference Environment
2018
- Bounding the quantum limits of precision for phase estimation with loss and thermal noise
2017
- Covert active sensing of linear systems
2017
- Fundamental limits of quantum-secure covert optical sensing
2017
- Covert communications on continuous-time channels in the presence of jamming
2017
- Covert communication in the presence of an uninformed jammer
2017
- Covert Communication Gains from Adversary's Ignorance of Transmission Time
2016
- Covert Communication over Classical-Quantum Channels
2016
- Quantum Key Distribution Using Multiple Gaussian Focused Beams
2016
- Quantum-secure covert communication on bosonic channels
2015
- Hiding Information in Noise: Fundamental Limits of Covert Wireless Communication
2015
- Covert communications when the warden does not know the background noise power
2015
- FUNDAMENTAL LIMITS OF COVERT COMMUNICATION
2015
- Covert communication with the help of an uninformed jammer achieves positive rate
2015
- Covert single-hop communication in a wireless network with distributed artificial noise generation
2014
- Covert Optical Communication
2014
- LPD Communication when the Warden Does Not Know When
2014
- Asymptotic Optimality of Equal Power Allocation for Linear Estimation of WSS Random Processes
2013
- Limits of Reliable Communication with Low Probability of Detection on AWGN Channels
2013
- Quantum noise limited optical communication with low probability of detection
2013
- Quantum Noise Limited Communication with Low Probability of Detection
2013
- Square root law for communication with low probability of detection on AWGN channels
2012
- Clustering in cooperative networks
2011
- Informed Detour Selection Helps Reliability
2009
- Exact distributed Voronoi cell computation in sensor networks
2007
- Approximately uniform random sampling in sensor networks
2004
- Uniform Random Sampling in Sensor Networks
2004
- Post-IPO Flipping and Turnover: Predictive Factors for Long-Run Returns
2001