Harri Piitulainen

Harri Piitulainen

Professor
Unit
Faculty of Sport and Health Sciences
Room number
VIV 228
Mobile
+358405679225
Postal address
Rautpohjankatu 8a
Fields of science
315 Sport and fitness sciences

Biography

My education and work history

MSc in biomechanics, Univ. Jyväskylä, Finland, 2006

Pedagogical studies for teachers, Univ. Jyväskylä, 2009

PhD in biomechanics, Univ. Jyväskylä, 2006–2010

Post-doctoral Researcher, Aalto Univ., Finland, 2010–2013

Academy of Finland Post-doctoral Fellow, Aalto Univ., 2013–2016

Biomechanical expert, Motion Analysis Laboratory, Helsinki Univ. Hospital, Finland 2014–

Tittle of Docent in Motor Control, Univ. Jyväskylä, 2015–

Academy of Finland Research Fellow, Aalto Univ. 2016–2019 and Univ. Jyväskylä 2019–2021

Associate Professor in Neuro Research, Univ. Jyväskylä, 2019–2023

Visiting Professor, Aalto Univ. 2019–

Professor in Motor neuroscience, Univ. Jyväskylä, 2024–

I am in charge of the Functional Brain Lab (FBL) equipped with navigated TMS-EEG: https://www.jyu.fi/en/functional-brain-lab

I am leading the Sensorimotor Systems Neuroscience (MOTOR) research group: https://www.jyu.fi/en/research-groups/sensorimotor-systems-neuroscience

My recent collaborators

Aalto Univ., Finland | Univ. Helsinki, Finland | Univ. Eastern Finland | Université Libre de Bruxelles, Belgium | Polytechnic of Turin, Italy | Karolinska Institutet, Sweden | KU Leuven, Belgium | Harvard Medical School, USA

Research interests

My research interests
My background is in biomechanics, neurophysiology, and neuroimaging. I have comprehensive interest towards the human sensorimotor system: from the brain to the muscles—the whole system. Recently, my focus has been on the human proprioception, its cortical processing and role in motor functions, aging and motor impairments (CP, stroke, Parkinson’s disease, etc.). I am currently running my “Sensorimotor Systems Neuroscience (MOTOR)” research group of about 10 members. We study the structure and function of the healthy and diseased human sensorimotor system using behavioural and neuroimaging measures.

My methods
I have strong expertise on biomechanical and neuroimaging methods, especially in MEG, EMG and TMS.
MEG, magnetoencephalography | EEG, electroencephalography | (f)MRI, magnetic-resonance imaging | DWI, Diffusion-weighted imaging | TMS, transcranial magnetic stimulation | wEEG, wireless EEG | wHD-EMG, wireless high-density electromyography | 3D-motion analysis | Plantar pressure recordings | Electrical stimulation | IMU, inertial measurement units | Static and dynamic balance | Somatosensory stimulators

My primary ongoing research projects
CP-project – We use wide variety of neuroimaging (MEG, fMRI) and behavioral measures to examine the role of proprioception in the sensorimotor integration of healthy and diseased children and adolescents with cerebral palsy (CP).

DCD-project – We use fMRI and behavioral tests to examine whether the embodied social cognition is linked to impaired motor and proprioceptive performance in children and adults with developmental coordination disorder (DCD).

Neuropathy-MEG – We use MEG and behavioral tests to examine how the proprioceptive system and related motor function are impaired in Type I diabetic peripheral neuropathy.

NIVA-BRAIN – We use MEG and behavioral tests to examine how the proprioceptive system and related motor function are impaired and recovered after ankle joint injury (Achilles tendon rupture or ankle fracture).

wEEG-EMG – We aim to develop and use a wireless EEG-EMG system to examine corticospinal coupling during naturalistic movements.

Gesturotopy – We use novel multi-locus TMS to map the cortical representations of learned meaningful motor actions and semantic hand gestures in humans that we call “gesturotopy”.

Publications