# positions[].organizations[].label
Center for Remote Health Technologies and Systems

# positions[].organizations[].parent[].label
Texas A&M Engineering Experiment Station (TEES)

# positions[].organizations[].parent[].label
College of Education and Human Development

# overview
Dr. Nordin's research focuses on human neuromotor control of dynamic whole-body movements, such as walking, running, jumping, and landing. His lab studies how sensory and motor processes interact to produce and modify human movement.

# keywords[]
Left Auditory Cortex Spectral Power Desynchronizations

# publications[].label
Faster Gait Speeds Reduce Alpha and Beta EEG Spectral Power From Human Sensorimotor Cortex.

# publications[].publisher
Institute of Electrical and Electronics Engineers (IEEE)

# publications[].label
Faster gait speeds suppress human auditory electrocortical responses

# publications[].publisher
Institute of Electrical and Electronics Engineers (IEEE)

# publications[].label
Motion and Muscle Artifact Removal Validation Using an Electrical Head Phantom, Robotic Motion Platform, and Dual Layer Mobile EEG.

# publications[].publisher
Institute of Electrical and Electronics Engineers (IEEE)

# publications[].label
Comparison of Signal Processing Methods for Reducing Motion Artifacts in High-Density Electromyography DuringHuman Locomotion.

# publications[].publisher
Institute of Electrical and Electronics Engineers (IEEE)

# publications[].label
Quantification of Global Myoelectric Spatial Activations to Delineate Normal Hamstring Function at Progressive Running Speeds: A Technical Report.

# publications[].label
The self: Your own worst enemy? A test of the self-invoking trigger hypothesis.

# publications[].label
Single-leg landing neuromechanical data following load and land height manipulations.

# publications[].label
Effects of Matched and Mismatched Visual Flow and Gait Speeds on Human Electrocortical Spectral Power.

# publications[].label
Three-dimensional impact kinetics with foot-strike manipulations during running.

# publications[].label
Classifying performer strategies in drop landing activities.

# publications[].label
Neuromechanical synergies in single-leg landing reveal changes in movement control.

# publications[].label
Navigating complex virtual environments at a range of gait speeds differentially modulates human sensorimotor and occipitoparietal electrocortical spectral power

# publications[].label
Fatigue induces altered spatial myoelectric activation patterns in the medial gastrocnemius during locomotion.

# publications[].label
Effects of Stride Length Perturbations on Anterior-Posterior Force Components During Stance Phase of Walking

# publications[].label
Mobile Electroencephalography for Studying Neural Control of Human Locomotion.

# publications[].label
IMPLICATIONS OF INCREASED LOWER EXTREMITY MOVEMENT VARIABILITY ON FALL SUSCEPTIBILITY AT INCREASED STRIDE LENGTHS DURING LOCOMOTION

# publications[].label
Lower extremity variability changes with drop-landing height manipulations.

# publications[].label
Alterations in Movement Coordination due to Increasing Landing Height

# publications[].label
Load Accommodation Strategies and Movement Variability in Single-Leg Landing.

# publications[].label
Biomechanics and neural control of movement, 20years later: what have we learned and what has changed?

# publications[].label
Effects of Cable Sway, Electrode Surface Area, and Electrode Mass on Electroencephalography Signal Quality during Motion.

# publications[].label
Human electrocortical dynamics while stepping over obstacles.

# publications[].label
Does Landing Strategy Change with Increased Mechanical Task Demands?

# publications[].label
Footwear and footstrike change loading patterns in running.

# publications[].label
Reviewing the Variability-Overuse Injury Hypothesis: Does Movement Variability Relate to Landing Injuries?

# publications[].label
Adding neck muscle activity to a head phantom device to validate mobile EEG muscle and motion artifact removal

# publications[].publisher
Institute of Electrical and Electronics Engineers (IEEE)

# publications[].label
Cortical Processing and Lower Limb Muscle Activity Increase During Bodyweight Supported Treadmill Locomotion Underwater Compared to On-Land.

# publications[].publisher
Institute of Electrical and Electronics Engineers (IEEE)

# publications[].label
Balance Perturbations in Simulated Low-Gravity Modulate Human Premotor and Frontoparietal Electrocortical Theta, Alpha, and Beta Band Spectral Power

# publications[].publisher
Institute of Electrical and Electronics Engineers (IEEE)

# publications[].label
Human myoelectric spatial patterns differ among lower limb muscles and locomotion speeds.

# publications[].label
Gait-Induced Myoelectric EEG Artifact Removal Validation from Conventional and Tripolar Concentric Ring Electrodes

# publications[].label
Characterizing Bodyweight-Supported Treadmill Walking on Land and Underwater Using Foot-Worn Inertial Measurement Units and Machine Learning for Gait Event Detection.

# organizations[]
College of Education and Human Development

# organizations[]
Center for Remote Health Technologies and Systems

# organizations[]
Texas A&M Engineering Experiment Station (TEES)

# schools[]
Texas A&M Engineering Experiment Station (TEES)

# schools[]
College of Education and Human Development