Outcome
Type |
Measure |
Description |
Time frame |
Safety issue |
Primary |
changes in matched forces (Newtons) during a force-matching task. |
Bodily awareness following meditation training could impact the attenuation of real tactile sensations during self-generated touch. Measurement of pressure force will be done through a force-matching paradigm. |
1 or 2 days before the start of the retreat |
|
Primary |
changes in matched forces (Newtons) during a force-matching task. |
Bodily awareness following meditation training could impact the attenuation of real tactile sensations during self-generated touch. Measurement of pressure force will be done through a force-matching paradigm. |
7 days later |
|
Primary |
changes in matched forces (Newtons) during a force-matching task. |
Bodily awareness following meditation training could impact the attenuation of real tactile sensations during self-generated touch. Measurement of pressure force will be done through a force-matching paradigm. |
at least 3 weeks after the end of the retreat |
|
Primary |
changes in EEG an auditory evoked response called the mismatch negativity (microVolt) |
Moment-to-moment monitoring following meditation training could downregulate the automatic formation of perceptual habits. Measurement of auditory evoked potentials will be done through Biosemi 64 electrodes EEG net during an auditory oddball task. |
1 or 2 days before the start of the retreat |
|
Primary |
changes in EEG an auditory evoked response called the mismatch negativity (microVolt) |
Moment-to-moment monitoring following meditation training could downregulate the automatic formation of perceptual habits. Measurement of auditory evoked potentials will be done through Biosemi 64 electrodes EEG net during an auditory oddball task. |
7 days later |
|
Primary |
changes in EEG an auditory evoked response called the mismatch negativity (microVolt) |
Moment-to-moment monitoring following meditation training could downregulate the automatic formation of perceptual habits. Measurement of auditory evoked potentials will be done through Biosemi 64 electrodes EEG net during an auditory oddball task. |
at least 3 weeks after the end of the retreat |
|
Primary |
changes in EEG pain-related evoked responses (microVolt) |
Moment-to-moment monitoring and emotion regulation following meditation training could downregulate pain catastrophizing. Measurement pain-related evoked potentials will be done through Biosemi 64 electrodes EEG net during a pain characterization task. |
1 or 2 days before the start of the retreat |
|
Primary |
changes in EEG pain-related evoked responses (microVolt) |
Moment-to-moment monitoring and emotion regulation following meditation training could downregulate pain catastrophizing. Measurement pain-related evoked potentials will be done through Biosemi 64 electrodes EEG net during a pain characterization task. |
7 days later |
|
Primary |
changes in EEG pain-related evoked responses (microVolt) |
Moment-to-moment monitoring and emotion regulation following meditation training could downregulate pain catastrophizing. Measurement pain-related evoked potentials will be done through Biosemi 64 electrodes EEG net during a pain characterization task. |
at least 3 weeks after the end of the retreat |
|
Secondary |
Changes in perceived pain intensity during a pain paradigm |
Moment-to-moment monitoring and emotion regulation following meditation training could regulate the cognitive-affective pain amplificatory processes. Scales ranging from no intensity or unpleasantness, to highest pain intensity or unpleasantness experienced in life will be used during a pain characterization task. |
1 or 2 days before the start of the retreat |
|
Secondary |
Changes in perceived pain intensity during a pain paradigm |
Moment-to-moment monitoring and emotion regulation following meditation training could regulate the cognitive-affective pain amplificatory processes. Scales ranging from no intensity or unpleasantness, to highest pain intensity or unpleasantness experienced in life will be used during a pain characterization task. |
7 days later |
|
Secondary |
Changes in perceived pain intensity during a pain paradigm |
Moment-to-moment monitoring and emotion regulation following meditation training could regulate the cognitive-affective pain amplificatory processes. Scales ranging from no intensity or unpleasantness, to highest pain intensity or unpleasantness experienced in life will be used during a pain characterization task. |
at least 3 weeks after the end of the retreat |
|
Secondary |
Changes in perceived pain unpleasantness during a pain paradigm. |
Moment-to-moment monitoring and emotion regulation following meditation training could regulate the cognitive-affective pain amplificatory processes. Scales ranging from no intensity or unpleasantness, to highest pain intensity or unpleasantness experienced in life will be used during a pain characterization task. |
at least 3 weeks after the end of the retreat |
|
Secondary |
Changes in perceived pain unpleasantness during a pain paradigm. |
Moment-to-moment monitoring and emotion regulation following meditation training could regulate the cognitive-affective pain amplificatory processes. Scales ranging from no intensity or unpleasantness, to highest pain intensity or unpleasantness experienced in life will be used during a pain characterization task. |
1 or 2 days before the start of the retreat |
|
Secondary |
Changes in perceived pain unpleasantness during a pain paradigm. |
Moment-to-moment monitoring and emotion regulation following meditation training could regulate the cognitive-affective pain amplificatory processes. Scales ranging from no intensity or unpleasantness, to highest pain intensity or unpleasantness experienced in life will be used during a pain characterization task. |
7 days later |
|
Secondary |
Changes in BOLD functional connectivities at rest and during mindfulness meditation within and between the salience, default mode and executive brain networks |
Moment-to-moment monitoring following meditation training could regulate different attention related brain networks. Brain structural anatomy will be recorded in a 3-Tesla fMRI scaner during rest, and BOLD signal activation during rest and meditation states. |
1 to 7 days before the start of the retreat |
|
Secondary |
Changes in BOLD functional connectivities at rest and during mindfulness meditation within and between the salience, default mode and executive brain networks |
Moment-to-moment monitoring following meditation training could regulate different attention related brain networks. Brain structural anatomy will be recorded in a 3-Tesla fMRI scaner during rest, and BOLD signal activation during rest and meditation states. |
1 to 7 days after the end of the retreat |
|
Secondary |
Changes in BOLD functional connectivities at rest and during mindfulness meditation within and between the salience, default mode and executive brain networks |
Moment-to-moment monitoring following meditation training could regulate different attention related brain networks. Brain structural anatomy will be recorded in a 3-Tesla fMRI scaner during rest, and BOLD signal activation during rest and meditation states. |
at least 3 weeks after the end of the retreat |
|
Secondary |
Changes in macroscale functional organization of brain BOLD activity at rest or in meditation |
Moment-to-moment monitoring following meditation training could regulate different attention related brain networks. Brain structural anatomy will be recorded in a 3-Tesla fMRI scaner during rest, and BOLD signal activation during rest and meditation states. |
1 to 7 days before the start of the retreat |
|
Secondary |
Changes in macroscale functional organization of brain BOLD activity in meditation |
Moment-to-moment monitoring following meditation training could regulate different attention related brain networks. Brain structural anatomy will be recorded in a 3-Tesla fMRI scaner during rest, and BOLD signal activation during rest and meditation states. |
1 to 7 days before the start of the retreat |
|
Secondary |
Changes in macroscale functional organization of brain BOLD activity at rest or in meditation |
Moment-to-moment monitoring following meditation training could regulate different attention related brain networks. Brain structural anatomy will be recorded in a 3-Tesla fMRI scaner during rest, and BOLD signal activation during rest and meditation states. |
1 to 7 days after the end of the retreat |
|
Secondary |
Changes in macroscale functional organization of brain BOLD activity in meditation |
Moment-to-moment monitoring following meditation training could regulate different attention related brain networks. Brain structural anatomy will be recorded in a 3-Tesla fMRI scaner during rest, and BOLD signal activation during rest and meditation states. |
1 to 7 days after the end of the retreat |
|
Secondary |
Changes in macroscale functional organization of brain BOLD activity at rest or in meditation |
Moment-to-moment monitoring following meditation training could regulate different attention related brain networks. Brain structural anatomy will be recorded in a 3-Tesla fMRI scaner during rest, and BOLD signal activation during rest and meditation states. |
at least 3 weeks after the end of the retreat |
|
Secondary |
Changes in macroscale functional organization of brain BOLD activity in meditation |
Moment-to-moment monitoring following meditation training could regulate different attention related brain networks. Brain structural anatomy will be recorded in a 3-Tesla fMRI scaner during rest, and BOLD signal activation during rest and meditation states. |
at least 3 weeks after the end of the retreat |
|
Secondary |
Changes in experiential thought sampling thoughout the meditation retreat. |
Moment-to-moment monitoring of thougts and emotions during intensive meditation training could regulate mind-wandering and mood. Different scales of thoughts content, emotional valence and awareness of them will be recorded |
every day from day 1 to day 10 of the retreat |
|