From: Immunity in neuromodulation: probing neural and immune pathways in brain disorders
Study number | Design | Objective | Methodology | Results | Conclusion |
---|---|---|---|---|---|
83 | Clinical study (post-stroke MDD patients and control group) | Investigate the effects of rTMS on inflammatory markers and immune function in post-stroke MDD (PSD) patients | rTMS treatment applied to PSD patients and control group over eight weeks. Measured serum levels of IL-1b, IL-6, TNF-α, as well as dopamine, norepinephrine, serotonin, glycine, and glutamate. Assessed PHQ-9 and MBI scores | Significant decrease in IL-1b, IL-6, and TNF-α levels, stronger effect in PSD patients Increased dopamine, norepinephrine, serotonin, glycine, and glutamate levels Improvement in PHQ-9 and MBI scores | rTMS effectively reduces inflammation and promotes immune function, supporting clinical recovery in PSD patients |
84 | Review of NIBS effects on motor outcomes post-stroke | Review NIBS techniques (like tDCS and rTMS) on motor outcomes post-stroke, with focus on precision and efficacy | Review of various studies using NIBS in post-stroke patients, focusing on motor outcomes, brain plasticity, and neural activity | NIBS modulates brain activity, showing potential to improve brain plasticity. No significant long-term impact on motor outcomes, with motor improvements noted in some subacute stroke patients | NIBS shows promise for enhancing brain plasticity, but further improvements are needed for better precision in motor rehabilitation |
85 | Clinical study (subacute stroke patients) | Examine the effects of anodal tDCS on postural stability, trunk stability, and physical performance in subacute stroke patients | Anodal tDCS applied to subacute stroke patients. Measured postural stability, trunk stability, and physical performance at short- and long-term intervals | Short-term improvement in postural stability, long-term improvements in physical performance and anticipatory postural adjustments. No effect on quality of life | Anodal tDCS improves physical performance and postural stability, with no effect on quality of life |
86 | Clinical study (stroke patients) | Compare the effects of rTMS, tDCS, and sham treatments on motor rehabilitation, specifically walking cadence and balance | rTMS, tDCS, and sham treatments applied to stroke patients. Measured walking cadence, walking speed, and functional balance | rTMS showed superior effects on walking cadence, speed, and functional balance. tDCS showed short-term motor improvements, but no long-term effects | rTMS is superior to tDCS for motor rehabilitation in stroke patients, particularly for walking and balance |
87 | Review of neuromodulation techniques | Investigate new neuromodulation strategies, such as tTIS, LIFUS, and single-pulse TMS, for motor rehabilitation post-stroke | Review of various non-invasive neuromodulation techniques (tTIS, LIFUS, single-pulse TMS). Assessed their effects on deep brain structures, motor rehabilitation, and the precision of cortical state evaluations | tTIS and LIFUS showed significant potential to modulate deeper brain structures. Single-pulse TMS and motor evoked potentials (MEPs) could offer valuable prognostic information for rehabilitation | New neuromodulation strategies like tTIS and LIFUS have strong potential for rehabilitation, with MEPs providing important prognostic information |
88 | Clinical study (bilateral rTMS and VR-BCI) | Examine the synergistic effect of bilateral rTMS and VR-BCI on patient recovery post-stroke | Combined bilateral rTMS and VR-BCI in stroke patients. Measured rehabilitation outcomes and recovery through electroencephalographic signal IAF (individual alpha frequency) | Significant improvement in patient recovery with the combined use of rTMS and VR-BCI. IAF was a reliable biomarker for recovery evaluation, strongly correlating with rehabilitation outcomes | The combination of bilateral rTMS and VR-BCI enhances recovery and provides reliable biomarkers for evaluating stroke rehabilitation progress |