Source 1primary paper2026MED
Toolkit/transcranial electrical stimulation
transcranial electrical stimulation
Also known as: tES, TES
Taxonomy: Technique Branch / Method. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
The three considered modalities were... central neuromodulation (... transcranial electrical stimulation ...)
Usefulness & Problems
Why this is useful
tES is named as one of the non-surgical neuromodulation strategies reviewed for cognition in late-life depression. The abstract suggests such strategies may promote cortical plasticity and improve network connectivity.; non-surgical neuromodulation discussed for late-life depression and cognition; Transcranial electrical stimulation is listed as a central neuromodulation modality considered for noninvasive tremor suppression.; central neuromodulation for tremor management; TES is presented as a non-invasive neuromodulation technique that may target cingulate subregions involved in pain. The review compares its modality-specific effects with TMS and LIFU.; non-invasive neuromodulation of cingulate pain targets
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tES is named as one of the non-surgical neuromodulation strategies reviewed for cognition in late-life depression. The abstract suggests such strategies may promote cortical plasticity and improve network connectivity.
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non-surgical neuromodulation discussed for late-life depression and cognition
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Transcranial electrical stimulation is listed as a central neuromodulation modality considered for noninvasive tremor suppression.
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central neuromodulation for tremor management
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TES is presented as a non-invasive neuromodulation technique that may target cingulate subregions involved in pain. The review compares its modality-specific effects with TMS and LIFU.
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non-invasive neuromodulation of cingulate pain targets
Problem solved
The review frames tES as a possible intervention for impaired prefrontal plasticity linked to cognitive decline risk in late-life depression.; candidate approach to promote cortical plasticity in late-life depression; It contributes to the set of patient-friendly alternatives being explored for tremor management.; providing a noninvasive alternative for pathological tremor suppression; It offers a non-invasive route for modulating pain-related cingulate circuitry.; provides a non-invasive method to access pain-relevant cingulate targets
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The review frames tES as a possible intervention for impaired prefrontal plasticity linked to cognitive decline risk in late-life depression.
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candidate approach to promote cortical plasticity in late-life depression
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It contributes to the set of patient-friendly alternatives being explored for tremor management.
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providing a noninvasive alternative for pathological tremor suppression
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It offers a non-invasive route for modulating pain-related cingulate circuitry.
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provides a non-invasive method to access pain-relevant cingulate targets
Problem links
candidate approach to promote cortical plasticity in late-life depression
LiteratureThe review frames tES as a possible intervention for impaired prefrontal plasticity linked to cognitive decline risk in late-life depression.
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The review frames tES as a possible intervention for impaired prefrontal plasticity linked to cognitive decline risk in late-life depression.
provides a non-invasive method to access pain-relevant cingulate targets
LiteratureIt offers a non-invasive route for modulating pain-related cingulate circuitry.
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It offers a non-invasive route for modulating pain-related cingulate circuitry.
providing a noninvasive alternative for pathological tremor suppression
LiteratureIt contributes to the set of patient-friendly alternatives being explored for tremor management.
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It contributes to the set of patient-friendly alternatives being explored for tremor management.
Taxonomy & Function
Primary hierarchy
Technique Branch
Method: A concrete measurement method used to characterize an engineered system.
Techniques
Functional AssayTarget processes
No target processes tagged yet.
Input: Electrical
Implementation Constraints
cofactor dependency: cofactor requirement unknownencoding mode: genetically encodedimplementation constraint: context specific validationoperating role: sensor
The abstract does not specify the tES subtype, stimulation parameters, or operational requirements.; requires neuromodulation treatment delivery; evidence comparison is limited by heterogeneity in study design, patient populations, and technology maturity; Requires a transcranial electrical stimulation setup. The abstract does not specify stimulation form or parameters.; used for deep midline cingulate targets with technique-specific effects on analgesic outcomes
The abstract does not identify which tES protocols or patient subgroups are most effective.; abstract does not provide protocol details or modality-specific outcome data; The abstract does not show strong standardized clinical evidence and notes only moderate effects for central neuromodulation overall.; direct comparison across techniques is hindered by study heterogeneity; The abstract does not establish that TES resolves all anatomical and technical limitations of deep midline targeting.; strengths and limitations for accessing deep midline structures are discussed but not specified in the abstract
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Source 2primary paper2026MED
Source 3primary paper2025MED
Ranked Claims
ECT, rTMS, tES, and FUS are reviewed as plasticity-inducing non-surgical neuromodulations for late-life depression.
Central neuromodulation produced moderate effects for pathological tremor suppression.
Force-controlling strategies showed promising acute effects but their clinical translation remains limited by poor wearability and muscle fatigue.
These neuromodulation strategies could promote cortical plasticity and improve network connectivity and prefrontal function, potentially reducing cognitive decline.
Peripheral neuromodulation has gained clinical traction and several devices are now commercially available.
Placebo mechanisms and stimulation context influence therapeutic effects of non-invasive cingulate neuromodulation for pain.
We also explore the influence of placebo mechanisms and stimulation context on therapeutic effects.
Different non-invasive neuromodulatory methods have distinct strengths and limitations for accessing deep midline cingulate structures, and technique-specific and target-specific effects influence analgesic outcomes.
We compare the strengths and limitations of the different non-invasive neuromodulatory methods for accessing these deep midline structures and examine how technique-specific and target-specific effects influence analgesic outcomes.
Pain-relevant cingulate subregions may be promising therapeutic targets for non-invasive neuromodulation using TMS, TES, and LIFU.
These regions may be promising therapeutic targets using non-invasive neuromodulation techniques, including transcranial magnetic stimulation (TMS), transcranial electrical stimulation (TES), and low-intensity focused ultrasound (LIFU).
Approval Evidence
3 sources6 linked approval claimsfirst-pass slug transcranial-electrical-stimulation
The three considered modalities were... central neuromodulation (... transcranial electrical stimulation ...)
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These neuromodulations include ... transcranial electrical stimulation (tES)...
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These regions may be promising therapeutic targets using non-invasive neuromodulation techniques, including transcranial magnetic stimulation (TMS), transcranial electrical stimulation (TES), and low-intensity focused ultrasound (LIFU).
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mechanism of actionsupports
ECT, rTMS, tES, and FUS are reviewed as plasticity-inducing non-surgical neuromodulations for late-life depression.
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performance summarysupports
Central neuromodulation produced moderate effects for pathological tremor suppression.
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therapeutic rationalesupports
These neuromodulation strategies could promote cortical plasticity and improve network connectivity and prefrontal function, potentially reducing cognitive decline.
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context dependencesupports
Placebo mechanisms and stimulation context influence therapeutic effects of non-invasive cingulate neuromodulation for pain.
We also explore the influence of placebo mechanisms and stimulation context on therapeutic effects.
Source:
modality comparisonsupports
Different non-invasive neuromodulatory methods have distinct strengths and limitations for accessing deep midline cingulate structures, and technique-specific and target-specific effects influence analgesic outcomes.
We compare the strengths and limitations of the different non-invasive neuromodulatory methods for accessing these deep midline structures and examine how technique-specific and target-specific effects influence analgesic outcomes.
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therapeutic potentialsupports
Pain-relevant cingulate subregions may be promising therapeutic targets for non-invasive neuromodulation using TMS, TES, and LIFU.
These regions may be promising therapeutic targets using non-invasive neuromodulation techniques, including transcranial magnetic stimulation (TMS), transcranial electrical stimulation (TES), and low-intensity focused ultrasound (LIFU).
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Comparisons
Source-stated alternatives
The abstract lists ECT, rTMS, and FUS as other reviewed neuromodulation options.; The review contrasts it with TMS, low-intensity focused ultrasound, transcutaneous spinal cord stimulation, force-controlling approaches, and peripheral neuromodulation.; The abstract names TMS and LIFU as alternative non-invasive approaches.
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The abstract lists ECT, rTMS, and FUS as other reviewed neuromodulation options.
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The review contrasts it with TMS, low-intensity focused ultrasound, transcutaneous spinal cord stimulation, force-controlling approaches, and peripheral neuromodulation.
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The abstract names TMS and LIFU as alternative non-invasive approaches.
Source-backed strengths
explicitly included as a plasticity-inducing neuromodulation modality in the review scope; moderate effects at the modality level
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explicitly included as a plasticity-inducing neuromodulation modality in the review scope
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moderate effects at the modality level
Compared with focused ultrasound
The review contrasts it with TMS, low-intensity focused ultrasound, transcutaneous spinal cord stimulation, force-controlling approaches, and peripheral neuromodulation.; The abstract names TMS and LIFU as alternative non-invasive approaches.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly included as a plasticity-inducing neuromodulation modality in the review scope; moderate effects at the modality level.
Relative tradeoffs: abstract does not provide protocol details or modality-specific outcome data; direct comparison across techniques is hindered by study heterogeneity; strengths and limitations for accessing deep midline structures are discussed but not specified in the abstract.
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The review contrasts it with TMS, low-intensity focused ultrasound, transcutaneous spinal cord stimulation, force-controlling approaches, and peripheral neuromodulation.
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The abstract names TMS and LIFU as alternative non-invasive approaches.
Compared with transcutaneous spinal cord stimulation
The review contrasts it with TMS, low-intensity focused ultrasound, transcutaneous spinal cord stimulation, force-controlling approaches, and peripheral neuromodulation.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly included as a plasticity-inducing neuromodulation modality in the review scope; moderate effects at the modality level.
Relative tradeoffs: abstract does not provide protocol details or modality-specific outcome data; direct comparison across techniques is hindered by study heterogeneity; strengths and limitations for accessing deep midline structures are discussed but not specified in the abstract.
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The review contrasts it with TMS, low-intensity focused ultrasound, transcutaneous spinal cord stimulation, force-controlling approaches, and peripheral neuromodulation.
Compared with ultrasonography
The review contrasts it with TMS, low-intensity focused ultrasound, transcutaneous spinal cord stimulation, force-controlling approaches, and peripheral neuromodulation.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly included as a plasticity-inducing neuromodulation modality in the review scope; moderate effects at the modality level.
Relative tradeoffs: abstract does not provide protocol details or modality-specific outcome data; direct comparison across techniques is hindered by study heterogeneity; strengths and limitations for accessing deep midline structures are discussed but not specified in the abstract.
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The review contrasts it with TMS, low-intensity focused ultrasound, transcutaneous spinal cord stimulation, force-controlling approaches, and peripheral neuromodulation.
Ranked Citations
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