Robotic Tms
Robotic Tms - Related Videos
14:35
Using TMS to Measure Motor Excitability During Action Observation
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2023
Source: Laboratories of Jonas T. Kaplan and Sarah I. Gimbel—University of Southern California Transcranial Magnetic Stimulation (TMS) is a non-invasive brain stimulation technique that involves passing current through an insulated coil placed against the scalp. A brief magnetic field is created by current in the coil, and because of the physical process of induction, this leads to a current in the nearby neural tissue. Depending on the duration, frequency, and magnitude of these magnetic...
12:38
State-Dependency Effects on TMS: A Look at Motive Phosphene Behavior
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Cited by 4 •
2010
In this article, we examine the effects of visually relevant state dependency on TMS induced motive phosphenic presentations.
10:29
The NeuroStar TMS Device: Conducting the FDA Approved Protocol for Treatment of Depression
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Cited by 83 •
2010
In this article, we examine the methodology and considerations relevant to the FDA approved depression treatment protocol using the Neuronetics NeuroStar TMS device.
13:18
Robotically Delivered fMRI-Guided Personalized Transcranial Magnetic Stimulation Therapy for Treatment-Resistant Depression
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Cited by 1 •
2026
This protocol describes the workflow of robotically delivered fMRI-guided personalized transcranial magnetic stimulation therapy for treatment-resistant depression. Clinical implementation using this protocol is feasible, and open-label results support the real-world effectiveness of this approach.
10:58
TMS: Using the Theta-Burst Protocol to Explore Mechanism of Plasticity in Individuals with Fragile X Syndrome and Autism
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Cited by 7 •
2010
In this article, we examine the effects of Theta-Burst TMS stimulation on cortical plasticity in individuals suffering from Fragile X syndrome and individuals on the autistic spectrum.
FAQs
The motion-control system adjusts the coil’s location and orientation as the target or participant position changes. When combined with image-guided neuronavigation, it can preserve the intended spatial relationship between the coil and selected cortical region. This reduces variation caused by manual repositioning and supports more consistent stimulation across trials, participants, or repeated experimental sessions.
Coil location and orientation determine which cortical region receives the intended magnetic stimulation and help maintain a consistent relationship with the underlying tissue. Robotic control is therefore important when experiments require repeated pulses or comparisons across conditions. Greater positional consistency can strengthen interpretations of changes in cortical excitability, motor responses, or connectivity-related measures.
Automated positioning allows the system to return the coil to a selected target repeatedly and to adjust its placement when the participant or target position changes. This capability supports protocols that deliver stimulation over repeated trials or modify stimulation placement during an experiment. Such consistency is especially relevant when researchers examine evolving cortical responses or compare individualized targets.
A typical setup combines a TMS coil with a robotic motion-control system and, often, image-guided neuronavigation. The coil delivers the magnetic pulses, while the positioning system controls its location and orientation. Neuronavigation links those movements to a selected brain target, helping the experiment maintain accurate placement as conditions change.
Researchers may choose robotic TMS when an experiment depends on reproducible targeting, repeated stimulation, or adjustments during participant movement. The approach is particularly relevant to motor-cortex mapping, studies of brain connectivity, and measurements of cortical excitability. Its automated control can reduce positioning variability, making comparisons across trials and participants more consistent.
Robotic TMS can support investigations of how cortical regions contribute to motor function, communicate within brain networks, or respond to magnetic stimulation. In neuroscience, these capabilities enable reproducible mapping and excitability studies while also supporting research on neurological and psychiatric disorders. The resulting evidence may inform individualized rehabilitation or therapeutic interventions.