Abstract
Autogenic training (AT), which MeSH files under hypnosis, is a self-directed relaxation technique in which a person silently repeats a fixed set of bodily formulae — heaviness, warmth, a calm heartbeat, easy breathing, abdominal warmth, and a cool forehead — to elicit a relaxation response. Developed by the German psychiatrist Johannes Heinrich Schultz in the 1920s and 1930s from his study of self-hypnosis, it replaces the clinician's suggestion with the practitioner's own, and its defining stance is passive concentration: an effortless dwelling on a formula that permits the autonomic change rather than forcing it. Controlled trials and meta-analyses report medium-sized benefits for anxiety, mild-to-moderate hypertension, tension headache, and stress-related complaints, with a shift toward parasympathetic dominance as its most reproducible marker. This article surveys the method's exercises, mechanism, evidence, and design limits.
Keywords: autogenic training, passive concentration, autonomic self-regulation
What Autogenic Training Is
Autogenic training is a structured, self-administered relaxation method in which the practitioner directs attention to the body and silently rehearses a small repertoire of standard verbal formulae until a global relaxation response appears. The word is literal: from the Greek autos (self) and genos (production), it names a state the person generates in themselves rather than one a therapist induces. Schultz built the technique in the 1920s and 1930s out of his clinical work with hypnosis, having noticed that patients could reliably reproduce, on their own, the heaviness and warmth that heralded a hypnotic state — and that doing so brought relief from tension and fatigue (#ref-schultz-luthe-1959).
MeSH files autogenic training beneath hypnosis because of that lineage, but the classification is an indexing convenience rather than a clinical identity. In hypnosis the locus of control sits with the operator's suggestion; in autogenic training it sits with the practitioner, who is both the source and the object of the instruction. The method is therefore better understood as the self-directed sibling of hypnosis — one that trades the hypnotist for a memorised script and a particular quality of attention (#ref-luthe-1963).
The six standard exercises
Step through the classical sequence. Each formula is learned in this fixed order and directed at a specific bodily system through passive concentration.
“My arms and legs are heavy.”
System: Somatic / muscular
Heaviness is the felt signature of released muscular tension — the first exercise, learned limb by limb.
The technique is taught as a graded course, not a single trick. A practitioner learns the formulae one at a time over weeks, practising several short sessions a day in a quiet posture — reclining, or seated in the slumped cabman's pose — until each formula reliably evokes its sensation, at which point the next is added. The full standard sequence, once consolidated, can carry a trained person into a relaxed state within a minute or two (#ref-linden-1994).
Figure 1
The Six Standard Formulae and Their Target Systems
The Standard Exercises
The classical method comprises six standard exercises, learned in a fixed order because each builds on the bodily state the last established. The first two are somatic. The heaviness formula — my right arm is heavy, generalised limb by limb — targets the striated muscles, and the sensation of heaviness is the felt signature of released muscular tension. The warmth formula — my right arm is warm — targets the peripheral blood vessels, and the warmth is real: passive concentration on it produces measurable peripheral vasodilation and a rise in skin temperature of a degree or more (#ref-luthe-1963).
The next two address the autonomic organs. The cardiac formula — my heartbeat is calm and regular — invites a settling of heart rate, and the respiratory formula, often phrased in the passive it breathes me, lets breathing slow without being driven. The final two localise the response: the solar-plexus formula — my solar plexus is warm — directs warmth to the abdomen and the visceral circulation, and the forehead formula — my forehead is cool — introduces a deliberate contrast, keeping the head clear while the body relaxes (#ref-schultz-luthe-1959).
| Exercise | Formula | Target system | Physiological effect |
|---|---|---|---|
| 1. Heaviness | Arms and legs are heavy | Striated muscles | Released muscular tension |
| 2. Warmth | Arms and legs are warm | Peripheral blood vessels | Vasodilation, higher skin temperature |
| 3. Cardiac | Heartbeat is calm and regular | Heart | Lower heart rate, higher variability |
| 4. Respiration | It breathes me | Lungs | Slower, unforced breathing |
| 5. Solar plexus | Solar plexus is warm | Abdomen, visceral circulation | Visceral warmth |
| 6. Forehead | Forehead is cool | Head | Cool, clear head as a deliberate contrast |
Beyond these six standard exercises lies a second tier that Schultz and Luthe called autogenic meditation, in which the consolidated relaxed state is used as a platform for guided visual imagery, and a set of clinical variants — organ-specific formulae and autogenic modification — tailored to particular complaints. Most clinical and research use, however, concerns the six standard exercises, which are what the outcome literature almost always tests (#ref-linden-1994).
Passive Concentration
The cognitive heart of autogenic training is a stance Schultz named passive concentration, and it is what separates the method from ordinary effortful self-instruction. To concentrate passively is to hold a formula in attention while remaining wholly indifferent to the result — to dwell on my arm is heavy as a quiet observation rather than a command, and to let the sensation arrive rather than reaching for it. Active striving is not merely unnecessary; it is counterproductive, because the sympathetic arousal that accompanies effort directly opposes the parasympathetic relaxation the formula is meant to elicit (#ref-luthe-1963).
Passive concentration vs. the law of reversed effort
Drag from passive attending toward active striving. The warmth response is involuntary: trying harder recruits the sympathetic arousal that defeats it, so the curve falls as effort rises.
Passive concentration — the response is permitted to arrive.
This is a concrete instance of what has been called the law of reversed effort: for a class of involuntary responses, trying harder makes the target less attainable, because the trying itself installs the arousal the response must overcome. Warmth, drowsiness, and a slowing heart cannot be willed into being the way a muscle is contracted; they can only be permitted. Passive concentration is the trained ability to attend without grasping — to keep the formula in mind while withholding the effort that would defeat it (#ref-linden-1994).
The stance connects autogenic training to the wider family of attentional self-regulation methods. Its passive, non-striving attention is a near-relative of the non-judgemental awareness cultivated in mindfulness, and its use of self-generated instruction to steer a bodily state links it to the operant control of physiology studied under biofeedback. What is distinctive in autogenic training is the fixed verbal scaffold: the formulae give the passive attention a definite object, so the practitioner is never merely told to relax but always given a specific sensation to notice.
Autonomic Self-Regulation
The physiological signature of autogenic training is a shift in autonomic balance toward parasympathetic dominance. Practised correctly, the standard exercises lower heart rate and blood pressure, warm the periphery, slow respiration, and raise the variability of the heartbeat — the beat-to-beat fluctuation that indexes vagal, parasympathetic tone. Miu and colleagues showed the link directly: heart rate variability is reduced in anxiety, and a session of autogenic training raised vagal tone and heart rate variability relative to a control condition, tying the method's subjective calm to a measurable autonomic change (#ref-miu-2009).
The autonomic shift across a training course
Move through weeks of daily practice. As each formula is consolidated, the trained response strengthens: peripheral temperature and heart rate variability rise while resting heart rate falls toward a parasympathetic set-point.
The response is trained, not instant: repetition binds each formula to its autonomic effect until the shift fires quickly and reliably.
The mechanism is best read as top-down self-regulation. A cortically held instruction — the formula, sustained by passive concentration — biases activity in the autonomic centres of the brainstem and hypothalamus, which in turn adjust the peripheral organs. The warmth formula is the cleanest demonstration: there is no voluntary muscle that dilates a skin capillary, yet passive concentration on warmth reliably produces peripheral vasodilation and a rise in skin temperature, a purely autonomic effect reached through an act of attention. This is why autogenic training sits naturally within psychophysiology, the study of how mental states and bodily processes correspond (#ref-luthe-1963).
The same account explains why the method must be practised rather than merely understood. The autonomic shift is a trained response: repetition binds each formula to its bodily effect until the association is strong enough to fire quickly and reliably, in the way any well-learned skill becomes automatic. Early sessions may also produce transient autogenic discharges — brief twitches, tingling, or fleeting emotion as accumulated tension releases — which are treated as expected by-products of the process rather than problems (#ref-schultz-luthe-1959).
The Evidence Base
Quantitative synthesis gives autogenic training a consistent, medium-sized signal. Stetter and Kupper's meta-analysis of sixty controlled outcome studies found medium-to-large pre-post effects and medium effects against control conditions across a range of disorders — including tension headache, migraine, mild-to-moderate hypertension, coronary heart disease, asthma, and anxiety — with no evidence that the method underperformed other relaxation approaches (#ref-stetter-kupper-2002). Linden's earlier narrative and quantitative review reached the same qualitative conclusion and remains the field's standard account of the method's clinical reach (#ref-linden-1994).
The systematic-review literature is more measured. Ernst and Kanji, reviewing controlled trials of autogenic training for anxiety and stress, found the better-designed studies broadly supportive but faulted the field for small samples and weak methodology (#ref-ernst-kanji-2000), and a companion review of tension-type headache reached a similarly cautious verdict — a plausible benefit resting on thin trial evidence (#ref-kanji-2006). Where individual trials are well controlled, the signal survives: in a randomised trial, autogenic training reduced anxiety in patients recovering from coronary angioplasty relative to usual care (#ref-kanji-2004).
More recent work extends the pattern into new populations while sharpening the estimates. Manzoni and colleagues, in a decade-spanning meta-analysis of relaxation training for anxiety, placed autogenic training among the effective approaches (#ref-manzoni-2008). Seo and Kim's meta-analysis found medium-to-large effects on stress-response outcomes (#ref-seo-kim-2019); Kohlert, Wick, and Rosendahl reported a significant reduction in chronic pain across randomised trials (#ref-kohlert-2022); and a 2025 randomised trial found autogenic relaxation training improved psychological wellbeing in stroke survivors (#ref-nordin-2025).
Worked Example
Effect sizes reported as Cohen's d can be turned into statements a clinician can act on. Take four representative controlled effect sizes from the autogenic-training outcome literature — anxiety d = 0.58, tension headache d = 0.44, physiological stress d = 0.62, and psychological stress d = 0.68 (#ref-stetter-kupper-2002; #ref-seo-kim-2019).
Their simple mean is (0.58 + 0.44 + 0.62 + 0.68) / 4 = 2.32 / 4 = 0.58, a medium pooled effect.
Two intuitive re-expressions follow. Cohen's U3, the proportion of the treated group exceeding the average untreated outcome, is the standard-normal cumulative probability Φ(d): Φ(0.58) = 0.719. About 72% of autogenic-training recipients therefore end above the average control outcome, against the 50% baseline. The probability of superiority — the chance a randomly chosen treated person outscores a randomly chosen control — is Φ(d / √2) = Φ(0.58 / 1.4142) = Φ(0.410) = 0.659, roughly a 2-in-3 chance.
Neither figure is large, and both inherit every design weakness of the studies feeding them. The exercise makes the medium-effect verdict concrete: a real and worthwhile benefit, but not a transformation, and best understood as an adjunct rather than a stand-alone cure.
Discussion
Autogenic training occupies a well-defined niche among self-regulation methods. It is cheaper and more portable than biofeedback, which needs instrumentation, and more structured than open-ended relaxation, because its fixed formulae give attention a definite object at every step. Its closest methodological sibling is progressive muscle relaxation, the technique Edmund Jacobson introduced in the 1930s, which reaches a comparable parasympathetic state by deliberately tensing and releasing successive muscle groups rather than by passive concentration (#ref-jacobson-1938); the two are routinely compared head to head, and modern syntheses find progressive muscle relaxation similarly effective for stress, anxiety, and depression (#ref-muhammadkhir-2024). Autogenic training's own mechanism is comparatively transparent — a trained, top-down autonomic shift reached through passive concentration — and its most direct physiological marker, the rise in peripheral temperature and heart rate variability, is measurable and replicable.
The honest summary mirrors the wider relaxation literature: reliable acute physiological effects and a probable medium clinical benefit, with the certainty of the clinical claim held down by design limitations rather than by negative findings. Blinding a participant to whether they are practising autogenic formulae is impossible, comparison conditions vary from waitlist to active relaxation, and training dose is inconsistently reported. The method's enduring value is as a low-cost, self-administered coping skill with a plausible mechanism, best deployed for stress, anxiety, and psychophysiological complaints rather than offered as a substitute for first-line treatment.
Current Directions
Current work is extending autogenic training into new clinical populations and delivery formats while trying to firm up the evidence. The strongest recent signal is in pain and rehabilitation: Kohlert and colleagues' meta-analysis established a reproducible effect on chronic pain (#ref-kohlert-2022), and randomised trials are now testing autogenic relaxation as an adjunct in stroke recovery, where it improved psychological wellbeing alongside standard care (#ref-nordin-2025). These applications move the method beyond its traditional home in anxiety and hypertension toward the broad territory of chronic-illness self-management.
A parallel effort concerns access and mechanism. Digital and app-delivered formats are being trialled to remove the instructor bottleneck that has always limited the method's reach, though whether unsupervised self-teaching preserves the effect remains open. On the mechanistic side, the autonomic story is being sharpened with heart rate variability as a directly measured biomarker rather than an inferred one (#ref-miu-2009), and the field's recurring methodological complaint — small, weakly controlled trials — is now the explicit target of the better recent syntheses (#ref-seo-kim-2019). Progress will be judged less by claims of new indications than by the quality of the controls used to test them.
Common Misconceptions
- Autogenic training is a form of hypnosis performed on oneself.
- MeSH files it under hypnosis for historical reasons, and Schultz derived it from self-hypnosis, but the working method is different: there is no operator and no suggestion in the hypnotic sense, only the practitioner's own passive concentration on fixed bodily formulae. The lineage is real; the equivalence is not (#ref-luthe-1963).
- Concentrating hard on each formula is what makes it work.
- The opposite is true. Effortful striving recruits the sympathetic arousal that blocks the relaxation response, so the method depends on passive concentration — attending to the formula while remaining indifferent to whether the sensation comes. Trying harder is the classic way to fail at it (#ref-linden-1994).
- The warmth and heaviness are just imagination.
- They are measurable autonomic events. Passive concentration on warmth produces genuine peripheral vasodilation and a rise in skin temperature, and the calming formulae raise heart rate variability — physiological changes, not merely felt ones (#ref-miu-2009).
Glossary
- Autogenic discharge.
- A transient, spontaneous phenomenon during training — a twitch, tingling, warmth, or brief emotion — understood as the release of accumulated tension and treated as an expected by-product rather than a problem.
- Autogenic meditation.
- The advanced tier of the method, in which the consolidated relaxed state is used as a platform for guided visual imagery, beyond the six standard exercises.
- Autogenic training.
- A self-directed relaxation technique in which the practitioner silently repeats standard bodily formulae, using passive concentration, to elicit a parasympathetic relaxation response.
- Autonomic nervous system.
- The division of the nervous system governing involuntary organ function; its sympathetic branch mobilises arousal and its parasympathetic branch supports rest, the balance autogenic training shifts.
- Cohen's d.
- A standardised effect size expressing a difference between two group means in pooled standard-deviation units; roughly 0.2, 0.5, and 0.8 denote small, medium, and large effects.
- Heart rate variability.
- The beat-to-beat fluctuation in heart rate; higher variability indexes greater vagal, parasympathetic tone and is a marker of the relaxed autonomic state autogenic training promotes.
- Law of reversed effort.
- The principle that for certain involuntary responses, deliberate striving makes the target less attainable, because the effort installs the arousal the response must overcome.
- Passive concentration.
- The method's defining attentional stance: holding a formula in attention while remaining indifferent to the result, permitting the bodily change rather than forcing it.
- Peripheral vasodilation.
- The widening of small blood vessels near the skin, which raises limb temperature; the autonomic effect underlying the autogenic warmth formula.
- Probability of superiority.
- The chance that a randomly chosen treated individual scores better than a randomly chosen control, computed as Φ(d/√2).
- Progressive muscle relaxation.
- Edmund Jacobson's relaxation method, autogenic training's methodological sibling, which induces a parasympathetic state by systematically tensing and releasing muscle groups rather than by passive concentration.
- Solar plexus.
- The network of sympathetic nerves behind the stomach that supplies the abdominal viscera; the target of the fifth standard formula, whose felt warmth reflects increased visceral blood flow.
- Standard exercises.
- The six core autogenic formulae — heaviness, warmth, cardiac calm, easy respiration, solar-plexus warmth, and forehead coolness — learned in a fixed order.
- Sympathetic arousal.
- Activation of the sympathetic branch of the autonomic nervous system — the fight-or-flight response — which effortful striving recruits and which passive concentration is designed to avoid.
- Vagal tone.
- The level of activity in the vagus nerve, the principal parasympathetic pathway to the heart; higher vagal tone slows the heart and raises its variability.
Key Researchers
Edzard Ernst (living). Emeritus professor of complementary medicine at the University of Exeter who led systematic reviews subjecting autogenic training for anxiety, hypertension, and headache to evidence-based scrutiny. Google Scholar
Wolfgang Linden (living). Professor of psychology at the University of British Columbia whose 1994 narrative and quantitative review remains the standard synthesis of autogenic training's clinical outcomes. Google Scholar
Wolfgang Luthe (1922-1985). German-Canadian physician who co-developed and internationalised the method, co-authoring the multi-volume Autogenic Therapy series and articulating the principle of passive concentration. Wikipedia
Andrei C. Miu (living). Cognitive neuroscientist at Babeș-Bolyai University who demonstrated the method's effect on heart rate variability and vagal tone in anxiety. ORCID
Jenny Rosendahl (living). Researcher at Jena University Hospital who co-authored the 2022 meta-analysis establishing autogenic training's effect on chronic pain. ORCID
Johannes Heinrich Schultz (1884-1970). German psychiatrist who developed autogenic training in the 1920s and 1930s, systematising it from his study of self-hypnosis into a graded set of standard exercises. Wikipedia
Frequently Asked Questions
What is autogenic training? It is a self-directed relaxation technique in which the practitioner silently repeats a fixed set of bodily formulae (heaviness, warmth, a calm heartbeat, easy breathing, abdominal warmth, and a cool forehead) to bring on a state of deep relaxation. Developed by Johannes Heinrich Schultz, it is essentially a structured way of switching the body from arousal toward rest (Schultz & Luthe, 1959).
How is it different from hypnosis? MeSH files it under hypnosis and Schultz derived it from self-hypnosis, but there is no hypnotist and no external suggestion. The practitioner is both the source and the object of the instruction, moving through the formulae with a particular quality of attention rather than being led by another person (Luthe, 1963).
What is passive concentration? It is the method's defining mental stance: attending to a formula such as my arm is heavy while remaining completely indifferent to whether the sensation arrives. Trying hard to force the effect recruits the arousal that blocks it, so the skill is to notice without grasping (Linden, 1994).
What are the six standard exercises? Heaviness in the limbs, warmth in the limbs, a calm and regular heartbeat, easy breathing, warmth in the solar plexus, and a cool forehead. They are learned one at a time, in that order, over several weeks of daily practice (Schultz & Luthe, 1959).
Does autogenic training actually change the body? Yes. Passive concentration on warmth produces real peripheral vasodilation and a rise in skin temperature, and the calming formulae raise heart rate variability, a marker of parasympathetic tone. These are measurable autonomic changes, not just subjective impressions (Miu, 2009).
What conditions is it used for? Meta-analyses report medium-sized benefits for anxiety, mild-to-moderate hypertension, tension headache, migraine, and stress-related complaints, with more recent evidence for chronic pain and rehabilitation (Stetter & Kupper, 2002).
How strong is the evidence? Consistent but modest. Controlled studies show a medium effect on average, comparable to other relaxation methods, but many trials are small and hard to blind, so the certainty of the clinical claim is limited by design rather than by negative results (Ernst & Kanji, 2000).
How long does it take to learn? The full course of six standard exercises is typically taught over about eight to ten weeks of short daily sessions, with each formula consolidated before the next is added. Once trained, a person can reach a relaxed state within a minute or two (Linden, 1994).
References
Ernst, E., & Kanji, N. (2000). Autogenic training for stress and anxiety: A systematic review. Complementary Therapies in Medicine, 8(2), 106-110. https://doi.org/10.1054/ctim.2000.0354
Kanji, N., White, A. R., & Ernst, E. (2004). Autogenic training reduces anxiety after coronary angioplasty: A randomized clinical trial. American Heart Journal, 147(3), 508. https://doi.org/10.1016/j.ahj.2003.10.011
Kanji, N., White, A. R., & Ernst, E. (2006). Autogenic training for tension type headaches: A systematic review of controlled trials. Complementary Therapies in Medicine, 14(2), 144-150. https://doi.org/10.1016/j.ctim.2006.03.001
Kohlert, A., Wick, K., & Rosendahl, J. (2022). Autogenic training for reducing chronic pain: A systematic review and meta-analysis of randomized controlled trials. International Journal of Behavioral Medicine, 29(5), 531-542. https://doi.org/10.1007/s12529-021-10038-6
Jacobson, E. (1938). Progressive relaxation (2nd ed.). University of Chicago Press. https://lccn.loc.gov/38013310
Linden, W. (1994). Autogenic training: A narrative and quantitative review of clinical outcome. Biofeedback and Self-Regulation, 19(3), 227-264. https://doi.org/10.1007/BF01721069
Luthe, W. (1963). Autogenic training: Method, research and application in medicine. American Journal of Psychotherapy, 17(2), 174-195. https://doi.org/10.1176/appi.psychotherapy.1963.17.2.174
Manzoni, G. M., Pagnini, F., Castelnuovo, G., & Molinari, E. (2008). Relaxation training for anxiety: A ten-years systematic review with meta-analysis. BMC Psychiatry, 8, 41. https://doi.org/10.1186/1471-244X-8-41
Miu, A. C., Heilman, R. M., & Miclea, M. (2009). Reduced heart rate variability and vagal tone in anxiety: Trait versus state, and the effects of autogenic training. Autonomic Neuroscience, 145(1-2), 99-103. https://doi.org/10.1016/j.autneu.2008.11.010
Muhammad Khir, S., Wan Mohd Yunus, W. M. A., Mahmud, N., Wang, R., Panatik, S. A., Mohd Sukor, M. S., & Nordin, N. A. (2024). Efficacy of progressive muscle relaxation in adults for stress, anxiety, and depression: A systematic review. Psychology Research and Behavior Management, 17, 345-365. https://doi.org/10.2147/PRBM.S437277
Nordin, N. A. M., Aziz, N. A. A., Rahman, N. N. A. A., & Rashid, A. A. (2025). Autogenic relaxation training and psychological wellbeing in stroke survivors: A randomized controlled trial. Topics in Stroke Rehabilitation, 32(3), 245-256. https://doi.org/10.1080/10749357.2024.2444117
Schultz, J. H., & Luthe, W. (1959). Autogenic training: A psychophysiologic approach in psychotherapy. Grune & Stratton. https://lccn.loc.gov/59007305
Seo, E., & Kim, S. (2019). Effect of autogenic training for stress response: A systematic review and meta-analysis. Journal of Korean Academy of Nursing, 49(4), 361-374. https://doi.org/10.4040/jkan.2019.49.4.361
Stetter, F., & Kupper, S. (2002). Autogenic training: A meta-analysis of clinical outcome studies. Applied Psychophysiology and Biofeedback, 27(1), 45-98. https://doi.org/10.1023/A:1014576505223