Somatic Experiencing Therapy - Vancouver & Online

I am a member of the BC Association of Clinical Counsellors (BCACC). I work with adults across the Lower Mainland — including Burnaby, North Vancouver, and Richmond — both in-person and online. My practice focuses on somatic therapy in Vancouver, approaching anxiety and trauma as nervous system patterns rather than cognitive, personality, or character-based problems.

Somatic Experiencing® therapy in Vancouver provides a structured, neuroscience-informed approach to recovery that prioritizes nervous system safety and careful pacing.

From a clinical and neuroscientific perspective, Somatic Experiencing® (SE) understands trauma as a condition of persistent nervous system dysregulation, not simply a problem of memory, belief, or emotional meaning. When an experience overwhelms the system’s capacity to respond, instinctive survival responses — such as fight, flight, freeze, or collapse — may be interrupted or inhibited. Although the event has passed, the physiological state associated with danger can remain active.

This is why trauma symptoms often continue long after a person “knows” they are safe. Subcortical threat-detection systems — including the brainstem, limbic system, and autonomic nervous system — operate independently of conscious reasoning. These systems prioritize survival over reflection, and they do not resolve through insight alone.

Dr. Peter Levine, the developer of Somatic Experiencing®, famously asked why animals in the wild rarely develop chronic trauma responses despite frequent threat. The answer lies in biological completion and autonomic recovery. After danger passes, animals naturally discharge survival energy through orienting, movement, shaking, rest, and settling. Humans, by contrast, often suppress or override these impulses in order to function, remain composed, or make sense of what happened. Over time, this can leave defensive responses unfinished and embedded in the nervous system.

Somatic Experiencing® works by gently restoring the body’s capacity to complete interrupted survival responses, without reliving traumatic events or intensifying emotional distress. This bottom-up approach engages the nervous system directly, supporting regulation and resolution at the level where trauma is actually stored.

From this perspective, trauma is not a failure of resilience or coping. It is the predictable result of a nervous system that was pushed beyond its capacity — and never given the conditions needed to return fully to balance.

References
Levine, P. A. (1997). Waking the Tiger. North Atlantic Books.
Levine, P. A. (2010). In an Unspoken Voice. North Atlantic Books.
Sapolsky, R. M. (2004). Why Zebras Don’t Get Ulcers. Henry Holt.

In trauma therapy, safety is not a belief or reassurance — it is a physiological state. When the nervous system remains organized around threat, it cannot reliably learn from new experiences, even when the person consciously understands that danger has passed.

From a nervous-system perspective, trauma is fundamentally a disruption of regulatory capacity. The system becomes biased toward activation (hypervigilance, urgency, panic) or shutdown (collapse, dissociation, numbness), with reduced ability to return to baseline. Under these conditions, approaching traumatic material too early can intensify symptoms rather than resolve them.

Somatic Experiencing® therefore treats safety as a prerequisite, not a by-product, of trauma work. Safety is established through two interrelated processes:

Co-regulation

Co-regulation occurs when one regulated nervous system helps stabilize another through presence, pacing, facial expression, tone of voice, and timing. These processes are mediated by brainstem and vagal pathways involved in social engagement. For many individuals — particularly those with developmental or relational trauma — self-regulation was never fully established in isolation. The therapeutic relationship itself therefore functions as an active regulatory intervention, not merely a context for insight.

Capacity building

Internal regulatory capacity is developed gradually through grounding, orienting, and other autonomic supports that help the nervous system recognize when it is safe enough to settle. This includes learning to identify early signs of activation or shutdown and restoring the ability to return toward regulation without force or suppression. In some cases, tools such as neurofeedback are used to support physiological stabilization when the nervous system cannot yet access regulation reliably on its own.

As co-regulation and internal capacity strengthen, the nervous system begins to register a critical update: activation does not automatically lead to danger, collapse, or loss of control. This learning widens the system’s tolerance for experience and creates the conditions necessary for later trauma processing.

Stabilization does not delay healing. It ensures that when deeper material is approached, the nervous system has enough flexibility to integrate it rather than becoming overwhelmed or further entrenched in defensive states.

References

• Porges, S. W. (2011). The polyvagal theory: Neurophysiological foundations of emotions, attachment, communication, and self-regulation. W. W. Norton & Company.
• Schore, A. N. (2012). The Science of the Art of Psychotherapy. W. W. Norton & Company.

From a clinical perspective, sensation is the primary language of the nervous system. Before thoughts, emotions, or meaning fully register, the body communicates through pressure, temperature, movement impulses, tension, collapse, agitation, or numbness. These signals reflect real-time autonomic organization rather than conscious interpretation.

In trauma, the ability to track sensation safely is often disrupted. Many people learn to manage physiological states through cognition, control, or avoidance, which can reduce distress in the short term but also maintain disconnection from the body. Traumatic learning is therefore not stored primarily as narrative memory, but as patterns of autonomic response, motor impulse, and sensation that remain active outside of conscious awareness.

In Somatic Experiencing®, sensation tracking is not a relaxation technique or generalized mindfulness practice. It is a precise clinical method for accessing implicit procedural memory encoded in subcortical systems. Attention is guided toward bodily signals in small, tolerable increments — a process known as titration — so activation can be noticed without flooding or shutdown.

This approach allows the nervous system to recognize activation without immediately escalating into defensive responses. Over time, sensation awareness increases interoceptive capacity, supporting improved emotional regulation, stress tolerance, and autonomic flexibility. Regulation emerges not through effort or control, but through restored access to the body’s own regulatory signals.

As sensation tracking becomes safer and more stable, the nervous system regains its ability to register change — tightening that releases, activation that settles, impulses that complete. These shifts indicate that physiological learning is occurring, creating the foundation for deeper trauma processing without overwhelm.

References

Craig, A. D. (2002). How do you feel? Interoception: the sense of the physiological condition of the body. Nature reviews neuroscience, 3(8), 655-666.

Payne, P., Levine, P. A., & Crane-Godreau, M. A. (2015). Somatic experiencing: using interoception and proprioception as core elements of trauma therapy. Frontiers in psychology, 6, 124489.

From a clinical and neurobiological perspective, trauma narrows the Window of Tolerance by altering how the nervous system predicts and manages arousal. Activation becomes tightly coupled with threat, while settling can become associated with vulnerability, collapse, or loss of control. This conditioning reduces autonomic flexibility — the system’s ability to shift states and return to baseline.

Somatic Experiencing® does not attempt to widen tolerance through repeated exposure or endurance. Instead, it targets the relationship between activation and regulation at the level of the autonomic nervous system. Healing occurs when activation is repeatedly experienced in conjunction with sufficient regulatory support, allowing the nervous system to revise its threat predictions.

This process is mediated by subcortical learning rather than conscious insight. When activation rises and is followed by successful settling — without suppression, avoidance, or dissociation — the nervous system encodes a new pattern: arousal can mobilize and resolve safely. Over time, this decouples activation from danger and reduces the system’s need to escalate defensively.

Clinically, this approach prioritizes:

• how the nervous system enters and exits activation
• timing and sequencing, rather than content of material
• resolution and return, rather than sustained arousal

As autonomic flexibility increases, the Window of Tolerance expands as a by-product of learning, not as a goal in itself. Individuals often experience fewer sudden shifts into hyperarousal or shutdown, improved recovery after stress, and greater capacity to remain present during emotionally or relationally activating situations.

This mechanism helps explain why somatic approaches can be effective for complex or developmental trauma, where exposure-based models may overwhelm systems that lack sufficient regulatory capacity.

References

• Ogden, P., Minton, K., & Pain, C. (2006). Trauma and the Body. W.W. Norton & Company.
• Siegel, D. J. (1999). The Developing Mind. Guilford Press.

From a nervous-system perspective, anger is a mobilizing protective response, not a character trait or behavioral problem. It arises from subcortical threat systems to support boundary-setting, self-protection, and action. When anger can organize and resolve, it supports clarity, limits, and relational safety.

In trauma—particularly relational or developmental trauma—this mobilization is often inhibited. Expressing anger may once have increased danger, threatened attachment, or led to punishment. The nervous system adapts by suppressing fight responses and defaulting to alternatives such as freeze (immobility, numbness) or fawn (appeasement, over-accommodation). Over time, this inhibition becomes embodied rather than deliberate.

Clinically, inhibited anger commonly presents as:

• difficulty saying no or asserting needs
• chronic anxiety in relational situations
• collapse, tightening, or dissociation during conflict
• persistent self-doubt or boundary confusion

Somatic trauma therapy approaches boundaries as a physiological capacity, not a communication skill. The work is not primarily about learning what to say, but about restoring the body’s ability to mobilize protection and then return to regulation. This involves carefully tracking the somatic markers of anger—heat, pressure, impulse to push or set an edge—without acting them out or suppressing them.

As inhibited fight energy becomes accessible in titrated ways, the nervous system relearns that mobilization can occur without escalation or loss of connection. Boundaries then emerge organically as felt limits, rather than as rules enforced by effort. Anxiety often decreases as the system no longer needs to rely on vigilance or appeasement to stay safe.

Effective boundary-setting reflects flexible mobilization: the capacity to activate protection when needed and to settle afterward. When this capacity returns, self-respect and confidence develop as embodied states—not as affirmations—because the nervous system now trusts its ability to protect and remain connected.

References

• Levine, P. A. (2010). In an Unspoken Voice. North Atlantic Books.
• Ogden, P., Minton, K., & Pain, C. (2006). Trauma and the Body. W. W. Norton & Company.
• Schore, A. N. (2003). Affect Regulation and the Repair of the Self. W. W. Norton & Company.

From a neurobiological perspective, shock is the nervous system’s earliest response to overwhelming threat. It occurs in the milliseconds before emotion, cognition, or organized defensive action fully form. This response involves rapid orienting, autonomic disruption, and a surge of survival energy that prepares the system for action.

When threat resolves quickly and support is available, this shock response naturally dissipates. However, when an experience is overwhelming, inescapable, or unsupported, shock may remain incompletely processed. The nervous system then retains a background level of unresolved charge, which can later present as chronic anxiety, hypervigilance, startle responses, persistent tension, or a sense of being “on edge” without a clear cause.

Importantly, shock is pre-emotional and pre-cognitive. For this reason, attempts to work primarily through insight, emotional expression, or memory recall may bypass the level where the original disruption occurred. Somatic trauma therapy therefore prioritizes supporting shock resolution before engaging affect or defensive responses more fully.

In this work, discharge does not mean dramatic release or catharsis. It refers to the gradual reorganization of autonomic activation as the nervous system completes what was interrupted. Clinically, this often shows up as subtle physiological shifts — changes in temperature, spontaneous breaths, waves of settling, gentle trembling, or a softening of muscular bracing.

The process is guided by:

• careful pacing and titration
• sustained regulation and orientation
• tracking micro-shifts in autonomic state
• allowing activation to resolve without intensifying it

As shock energy resolves, downstream symptoms often diminish without being directly targeted. Anxiety decreases because the system no longer carries unprocessed charge. Hypervigilance softens as the brainstem registers that the emergency has passed. The body regains a baseline sense of continuity and presence.

This sequencing — supporting shock resolution before emotional or defensive processing — aligns with contemporary trauma neuroscience and with models such as Somatic Experiencing® and Deep Brain Reorienting (DBR), which emphasize early brainstem and orienting responses in trauma organization.

References

• Corrigan, F. M., Young, H. C., & Christie-Sands, J. (2023). Deep Brain Reorienting: Understanding the Neuroscience of Trauma, Attachment Wounding, and DBR Psychotherapy. Routledge.
• Levine, P. A. (2010). In an Unspoken Voice: How the Body Releases Trauma and Restores Goodness. North Atlantic Books.
• Payne, P., Levine, P. A., & Crane-Godreau, M. A. (2015). Somatic experiencing: using interoception and proprioception as core elements of trauma therapy. Frontiers in Psychology, 6.

After early shock responses have softened, the nervous system often begins to allow affect and defensive impulses to emerge more clearly. These responses originate in subcortical threat circuits and are organized as action tendencies — impulses toward fight, flight, freezing, or appeasement — paired with corresponding emotional states.

In trauma, these responses are frequently incomplete or inhibited. The body initiated protective action, but circumstances such as immobilization, relational constraint, or overwhelming fear prevented the response from fully organizing or resolving. The nervous system may then retain fragments of activation as persistent anxiety, shutdown, irritability, or internal conflict.

Somatic trauma therapy works at the level of completion rather than expression. The goal is not to discharge emotion dramatically or act out defensive impulses, but to support the nervous system in allowing these responses to organize, crest, and settle in a regulated way. This process is guided moment by moment by physiological signals rather than by narrative content.

Clinically, integrating affect involves:

• tracking how emotion is expressed somatically (pressure, heat, constriction, impulse, collapse)
• allowing defensive impulses to emerge in micro-doses without acting them out
• maintaining regulation as activation rises and resolves
• supporting return to baseline after each wave completes

As affect and survival responses complete, the nervous system updates its internal predictions. Activation no longer signals danger without resolution. Emotions become time-limited processes rather than ongoing states. Anxiety decreases because the system no longer needs to contain unfinished defensive energy. Shutdown softens as access to vitality and presence returns.

Importantly, this work differentiates primary affect from secondary symptoms. Core emotions such as fear, anger, grief, or longing are approached and completed somatically. Symptoms such as chronic anxiety, panic, or depressive collapse are stabilized and regulated so the system has sufficient capacity to remain present with primary affect. This sequencing prevents flooding and supports durable integration.

As survival responses complete, people often experience increased flexibility, clearer boundaries, greater emotional range, and a more coherent sense of self. These changes reflect nervous-system reorganization rather than effortful coping.

References

• Levine, P. A. (2010). In an Unspoken Voice. North Atlantic Books.
• Ogden, P., Minton, K., & Pain, C. (2006). Trauma and the Body. W. W. Norton & Company.
• Panksepp, J. (1998). Affective Neuroscience. Oxford University Press.

From a nervous-system perspective, anxiety and trauma persist not because of faulty thinking, but because threat circuits remain active while regulatory systems fail to regain flexibility. Subcortical structures involved in threat detection, autonomic regulation, and action readiness continue to signal danger even when conscious awareness recognizes safety.

This explains why insight alone often fails to resolve symptoms. Cognitive understanding operates primarily at cortical levels, while trauma-related activation is organized in brainstem and limbic circuits that do not update through reasoning. When these systems remain biased toward protection, the body continues to respond as if threat is present.

Somatic Experiencing® works by targeting this mismatch directly. Rather than attempting to override activation with interpretation or control, it engages the physiological processes that generate and resolve threat responses. Through precise attention to sensation, timing, and state transitions, the nervous system is guided to complete defensive responses and return to baseline.

Clinically, SE supports change through:

• restoring autonomic flexibility rather than suppressing activation
• allowing defensive responses to resolve instead of remaining partially engaged
• updating threat predictions through lived, embodied experience
• reinforcing successful cycles of activation and settling

As these processes repeat, the nervous system learns that activation does not require ongoing vigilance or collapse. Anxiety softens as a downstream effect of improved regulation rather than through symptom management. Trauma responses lose intensity because the system no longer needs to remain prepared for unresolved danger.

This mechanism aligns with contemporary models of stress physiology, affect regulation, and trauma neuroscience, which emphasize state-dependent learning and subcortical reorganization as the basis for lasting change. When regulation is restored at the level where threat is encoded, psychological symptoms tend to resolve without effortful control.

References

• Levine, P. A. (2010). In an Unspoken Voice.
• Sapolsky, R. M. (2004). Why Zebras Don’t Get Ulcers.
• Van der Kolk, B. A. (2014). The Body Keeps the Score.

Trauma memories differ from ordinary memories because they are often stored as ongoing threat predictions, not as events that are clearly over. When reactivated, these memories can drive present-moment physiological responses—activation, shutdown, or dissociation—despite conscious awareness that the danger has passed.

Neuroscience research shows that emotional memories are not fixed. Under specific conditions, previously stored threat learning can be biologically revised through a process known as memory reconsolidation. This is not habituation, extinction, coping, or reframing. It is a time-limited window during which the original emotional learning becomes modifiable.

For reconsolidation to occur, three conditions must be met:

• Reactivation of the target emotional memory — the nervous system must briefly access the original threat prediction.
• Introduction of a clear mismatch (prediction error) — the system must encounter an experience that directly contradicts what the memory expects.
• Stabilization during the reconsolidation window — the nervous system must remain regulated long enough for the update to be encoded.

Crucially, this mismatch must be felt, not merely understood. Cognitive insight alone does not produce reconsolidation. The discrepancy must register at subcortical and autonomic levels where threat learning is stored.

Somatic Experiencing® reliably creates reconsolidation-relevant conditions by:

• reactivating memory in small, titrated fragments rather than full reliving
• maintaining autonomic regulation during activation
• allowing defensive responses to complete rather than remain partially engaged
• introducing lived experiences of safety, agency, or connection that contradict the original threat prediction

When reconsolidation occurs, change is often non-effortful. Triggers lose their charge without deliberate control. Emotional reactions soften rather than needing management. The nervous system no longer treats the memory as evidence of present danger.

This is why trauma resolution often feels less like “coping better” and more like something letting go at the root. The original learning is updated, not overridden. Defensive patterns dissolve because they are no longer required.

References

• Ecker, B., Ticic, R., & Hulley, L. (2012). Unlocking the emotional brain: Eliminating symptoms at their roots using memory reconsolidation. Routledge.
• Nader, K., Schafe, G. E., & Le Doux, J. E. (2000). Fear memories require protein synthesis in the amygdala for reconsolidation after retrieval. Nature, 406(6797), 722-726.
• Sinclair, A. H., & Barense, M. D. (2019). Prediction error and memory reactivation: How incomplete reminders drive reconsolidation. Trends in Neurosciences, 42(10), 727–739.