Dr Shuzo Sakata

Senior Lecturer

Strathclyde Institute of Pharmacy and Biomedical Sciences

Personal statement

The goal of our research team is (1) to understand how sensory information is processed by brain circuits, and (2) to develop better strategies for the improvement and restoration of sensory abilities, with emphasis on hearing.

Out strategies are (1) to study normal information processing, (2) to study abnormal information processing, and (3) to develop tools to modulate brain functions. Our main techniques are in vivo ensemble recording, optogenetics, and behavioural approaches. 



Circuit mechanisms and computational models of REM sleep
Héricé Charlotte, Patel Amisha, Sakata Shuzo
Neuroscience Research, pp. 1-32 (2018)
Distinct temporal coordination of spontaneous population activity between basal forebrain and auditory cortex
Yague Josue G, Tsunematsu Tomomi, Sakata Shuzo
Frontiers in Neural Circuits Vol 11 (2017)
Cell type-specific and age-related changes in auditory cortical processing
Lyngholm D, Sakata S
Society for Neuroscience Annual Meeting 2017 (2017)
Depth-specific optogenetic control in vivo with a scalable, high density µLED neural probe
Scharf Robert, Tsunematsu Tomomi, McAlinden Niall, Dawson Martin D, Sakata Shuzo, Mathieson Keith
Scientific Reports Vol 6 (2016)
State-dependent and cell type-specific temporal processing in auditory thalamocortical circuit
Sakata Shuzo
Scientific Reports Vol 6 (2016)
Stochastic transitions into silence cause noise correlations in cortical circuits
Mochol Gabriela, Hermoso-Mendizabal Ainhoa, Sakata Shuzo, Harris Kenneth D, de la Rocha Jaime
Proceedings of the National Academy of Sciences Vol 112, pp. 3529–3534 (2015)

more publications

Research interests

Research Projects
1. State-dependent auditory processing and perception
When we are paying attention to sound, we can vividly perceive it. When sleep, however, our perception is siginificantly diminished. But what is happening in the brain? Because our brain activity ('brain state') continuously changes, it is extremely important to address the following three questions: 1) how is each brain state organized at the level of neural circuit? 2) how do brain states affect sensory processing and perceptual decision? and 3) how are brain states regulated? We are addressing these questions by taking multidisciplinary approaches, with a focus on dynamic interplays between the auditory system and neuromodulatory systems.

2. The circuit mechanism of abnormal hearing
Brain circuits often generate auditory perception even in the absence of auditory inputs, such as auditory hallucinations. But how? We are particularly focusing on phantom auditory perception, so-called tinnitus. Tinnitus is a symptom, which is often associated with hearing loss. Considering aging society and age-related hearing loss, a better understanding of the neural basis of tinnitus is extremly urgent. We are aiming to identify neural correlates of tinnitus at the level of neuronal circuits. By using a massively parallel extracellular recording technique and a behavioural approach, we are determining relationships between tinnitus and abnormal neural population activity in the auditory thalamocortical circuit. This research program will provide further insight into the development of new treatment for tinnitus sufferers.

3. Technology development to improve and restore hearing
Once we understand both normal and abnormal states, a next step is to explore strategies to restore abnormal states into the normal one. In addition, we can also think of how we can boost our normal brain functions. To achieve these goals, we are developing new approaches and technologies. We are particularly interested in the improvement and restoration of sensory abilities by controlling neural activity. Combining advanced technologies in rodents as a model, we are developing novel strategies to improve and restore hearing.

***Our research team is currently accepting applications from prospective PhD students and postdocs. In particular, persons who have strong background in physics, mathematics, or engineering are strongly encouraged to apply. ***


Professional activities

State-dependent information processing in the brain
Circuit-based interrogation of Alzheimer's disease
Annual Meeting of the Japan Neuroscience Society
Annual Meeting of the Japan Neuroscience Society
Optical approaches to interrogate state-dependent and cell-type-specific activity in the brain
Neuromodulation and Neural Microcircuits Blue Brain Conference

more professional activities


Neural interfacing using visible light communication
Sakata, Shuzo (Principal Investigator)
01-Jan-2018 - 31-Jan-2019
Global reduction in Alzheimer's pathology by basal forebrain activation
Sakata, Shuzo (Principal Investigator)
01-Jan-2017 - 30-Jan-2018
Towards a better understanding of developing and ageing auditory system
Sakata, Shuzo (Principal Investigator)
18-Jan-2017 - 17-Jan-2017
Doctoral Training Partnership (DTP 2016-2017 University of Strathclyde) | Webster, Jack Fraser
Wozny, Christian (Principal Investigator) Sakata, Shuzo (Co-investigator) Webster, Jack Fraser (Research Co-investigator)
01-Jan-2016 - 01-Jan-2019
The function of sub-second brain waves in REM sleep
Sakata, Shuzo (Principal Investigator)
01-Jan-2016 - 31-Jan-2019
EPSRC Centre for Doctoral Training in Medical Devices and Health Technologies | Winstanley, Ruaridh Francis
Mathieson, Keith (Principal Investigator) Sakata, Shuzo (Co-investigator) Winstanley, Ruaridh Francis (Research Co-investigator)
01-Jan-2015 - 01-Jan-2019

more projects


Strathclyde Institute of Pharmacy and Biomedical Sciences
Hamnett Wing

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