Somatic Trauma & PTSD Therapy - Vancouver & Online

Adam Bradley Saunders, M.Ed., RCC is a Registered Clinical Counsellor providing somatic trauma therapy in Vancouver and online across British Columbia. He has over 20 years of clinical experience supporting adults with trauma, PTSD, and nervous system dysregulation using body-based, neuroscience-informed psychotherapy.

From a nervous-system perspective, trauma is less about what happened and more about how the brain and body adapted under threat. When experiences are overwhelming or inescapable, survival systems prioritize protection over reflection. This can leave the nervous system organized around danger long after the original event has passed.

Clinically, trauma tends to persist as state-based physiological patterns, most commonly:

• Hyperarousal—vigilance, anxiety, exaggerated startle, tension, sleep disruption
• Shutdown—numbness, collapse, dissociation, withdrawal, reduced initiative

These patterns are not signs of pathology or weakness. They are organized protective responses shaped by past threat.

In somatic trauma therapy, the focus is not on repeated narrative exposure, but on how threat responses show up in the present—through bracing, scanning, urgency, freezing, numbness, or collapse. Treatment emphasizes contradictory physiological learning rather than insight alone, helping the nervous system experience:

• safety that is felt, not just understood
• regulation that is repeatable
• connection without collapse, performance, or self-abandonment

As the nervous system repeatedly registers that “now is different,” protective responses no longer need to remain chronically active. Symptoms soften not through suppression, but through updated physiological learning that restores flexibility, regulation, and choice.

References

• Levine, P. A. (1997). Waking the Tiger: Healing Trauma. North Atlantic Books.
• Sapolsky, R. M. (2004). Why Zebras Don’t Get Ulcers. Henry Holt & Company.
• van der Kolk, B. A. (2014). The Body Keeps the Score. Viking / Penguin Random House.

Trauma symptoms can look similar on the surface, yet require very different pacing and therapeutic sequencing depending on when, how, and for how long threat occurred. This is because the nervous system organizes itself differently in response to single-incident, repeated, or developmental threat.

Acute trauma typically results from a single overwhelming event such as an accident, assault, or medical emergency. When an individual had a relatively stable nervous system before the event, the system often retains an underlying capacity for regulation. In these cases, trauma therapy can move more directly toward processing the event once sufficient safety is established.

Chronic trauma develops when threat is repeated or ongoing over time. The nervous system adapts by remaining in prolonged survival mode—often expressed as persistent anxiety, hypervigilance, irritability, sleep disruption, or difficulty relaxing. Treatment must first focus on restoring regulation and capacity before engaging in direct trauma processing.

Complex trauma (C-PTSD) most commonly arises in early life through emotional neglect, inconsistent caregiving, or relationships where safety and connection were unpredictable. In addition to fear-based symptoms, complex trauma shapes identity, self-worth, boundaries, shame, and the ability to feel safe in relationship. Because threat occurred within attachment itself, therapy must prioritize stabilization, relational safety, and body connection before approaching traumatic memories.

These distinctions align with phase-oriented trauma treatment models, originally articulated by Judith Herman and supported by subsequent trauma research. They help explain why approaches that are effective for single-incident trauma can feel overwhelming—or even destabilizing—when applied too quickly to chronic or developmental trauma.

Research on early adversity, including the Adverse Childhood Experiences (ACE) studies, further supports this differentiation by demonstrating how cumulative stress shapes long-term nervous system regulation. Importantly, ACE scores are not diagnoses and do not predict outcomes. They simply highlight why body-based, nervous-system-informed therapy is often essential when trauma occurred early or repeatedly.

References

• Centers for Disease Control and Prevention. (n.d.). About the CDC-Kaiser ACE Study.
• Courtois, C. A., & Ford, J. D. (2013). Treatment of Complex Trauma. Guilford Press.
• Felitti, V. J., Anda, R. F., Nordenberg, D., Williamson, D. F., Spitz, A. M., Edwards, V., Koss, M. P., & Marks, J. S. (1998). Relationship of childhood abuse and household dysfunction to many of the leading causes of death in adults: The adverse childhood experiences (ACE) study. American Journal of Preventive Medicine, 14(4), 245–258.
• Herman, J. L. (1992). Trauma and Recovery. Basic Books.
• Van der Kolk, B. A. (2005). Developmental trauma disorder. Psychiatric annals, 35(5), 401-408.

In trauma therapy, stabilization refers to building sufficient nervous system regulation before engaging traumatic material. It does not mean avoiding trauma work or remaining indefinitely at the surface. It means establishing the physiological conditions required for learning, integration, and memory processing to occur without overwhelm.

After trauma, the nervous system may remain organized around the expectation that danger could return at any moment. Clinically, this often presents as:

• chronic hypervigilance, tension, or exaggerated startle
• panic, racing thoughts, or sleep disruption
• numbness, dissociation, collapse, or “going away inside”
• difficulty staying present with sensation, emotion, or relationship

When the nervous system is in these states, attempts to process traumatic memories too early can intensify symptoms rather than resolve them. Under high threat, the brain’s learning capacity narrows and defensive responses become more rigid.

Stabilization focuses on creating repeatable, embodied experiences of safety so the nervous system can update its predictions. This is not reassurance or cognitive reframing—it is physiological change experienced in real time. Clinically, stabilization work may include:

• orienting to present-moment cues so the brain registers that now is different
• identifying early signs of activation or shutdown before escalation
• developing grounding and regulation strategies tailored to the individual system
• strengthening autonomic flexibility, including vagal regulation
• using tools such as neurofeedback when direct physiological support is needed

As stabilization capacity increases, early markers of change often appear: improved sleep, reduced reactivity, greater tolerance for sensation, and increased internal space. These shifts indicate that the nervous system is regaining flexibility.

Only once this foundation is in place does deeper trauma processing become appropriate. Stabilization does not delay healing—it makes durable healing possible.

References

• Herman, J. L. (1992). Trauma and Recovery. Basic Books.
• Ogden, P., Minton, K., & Pain, C. (2006). Trauma and the Body. W. W. Norton & Company.
• Porges, S. W. (2011). The Polyvagal Theory. W. W. Norton & Company.

For many trauma survivors, difficulties with boundaries are not problems of insight, confidence, or communication. They reflect how the nervous system adapted under threat—particularly when asserting needs, expressing anger, or saying “no” once carried real emotional or physical risk.

When self-protection was unsafe or ineffective, the nervous system often learned to inhibit mobilizing responses. Over time, this inhibition becomes embodied. Rather than activating to protect itself, the system may default to freeze or appeasement in relational situations. Clinically, this often presents as:

• people-pleasing or automatic compliance
• difficulty declining requests or setting limits
• tightening, collapse, or numbing when conflict arises
• loss of awareness of one’s own needs in relationship

These patterns are not conscious choices. They are inhibited protective responses—most commonly the suppression of healthy fight or assertive energy—that once helped preserve safety or connection.

In somatic trauma therapy, boundaries are approached as a physiological capacity, not a cognitive rule. 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 often involves:

• re-accessing inhibited assertive or protective energy in safe, titrated ways
• developing a felt sense of an internal “edge” or limit
• staying physiologically present while asserting needs or tolerating another’s disappointment
• integrating anger as a protective signal rather than a threat

From a nervous-system perspective, effective boundaries reflect flexible mobilization—the capacity to activate protection when needed and to settle afterward. As this capacity returns, hypervigilance often softens. Anxiety decreases not because situations change, but because the body no longer experiences boundary-setting as dangerous.

Self-respect grows through this process not as an affirmation or belief, but as an embodied knowing: I can protect myself and stay connected.

References

• Levine, P. A. (2010). In an Unspoken Voice. North Atlantic Books.
• Schore, A. N. (2012). The Science of the Art of Psychotherapy. W. W. Norton & Company.
• Fosha, D. (2000). The Transforming Power of Affect. Basic Books.

For many trauma survivors, disconnection from the body was not a failure—it was the only solution they had. Dissociation, numbing, and “going up into the mind” often develop when overwhelming sensations or emotions occurred without enough safety, support, or choice.

When the nervous system learned that staying embodied led to pain, fear, or loss of connection, it adapted by reducing sensation and awareness. Over time, this protective strategy can persist even after danger has passed. Clinically, this may show up as:

• feeling disconnected from sensations or emotions
• difficulty noticing internal cues such as hunger, fatigue, or emotion
• feeling “spaced out,” unreal, or not fully present
• relying heavily on thinking or analysis while bodily awareness remains muted

These patterns are not resistance. They reflect an intelligent nervous system doing what once helped you survive.

Somatic trauma therapy does not ask you to force body awareness or “drop into sensation” prematurely. Instead, reconnection is rebuilt gradually, with careful pacing and choice. The nervous system learns three experiences at the same time:

• sensation can be noticed in small, tolerable amounts
• presence can be maintained without flooding or collapse
• connection does not have to be navigated alone

In practice, this often involves:

• tracking sensation in brief, manageable doses (tightness, warmth, numbness, movement)
• noticing early signs of escalation or withdrawal before they intensify
• returning frequently to present-moment anchors such as orientation, contact points, breath, or gentle movement
• using the therapeutic relationship as a regulated “home base” while awareness expands

Over time, the nervous system updates an important rule: sensation is information, not danger. As this learning stabilizes, people often notice less dissociation, more emotional range, and a growing sense of inhabiting their body again.

Reconnection is not about feeling everything—it is about restoring choice. The body regains its capacity to feel, pause, and settle without needing to disappear for safety.

References

• Schauer, M., & Elbert, T. (2015). Dissociation following traumatic stress. Zeitschrift für Psychologie/Journal of Psychology.
• Payne, P., Levine, P. A., & Crane-Godreau, M. A. (2015). Somatic Experiencing®: Interoception and proprioception as core elements of trauma therapy. Frontiers in Psychology.
• Schore, A. N. (2012). The Science of the Art of Psychotherapy. W. W. Norton & Company.

Fight, flight, freeze, and fawn are not symptoms—they are innate survival responses. Each reflects how the nervous system mobilizes to protect against threat.

After trauma, these responses can become problematic not because they activate, but because they lose flexibility. The nervous system may fire certain survival patterns too quickly, too intensely, or without the ability to settle afterward.

Clinically, this often shows up as:

• fight: irritability, defensiveness, or sudden anger
• flight: anxiety, restlessness, overworking, or urgency
• freeze: numbness, shutdown, low energy, or disconnection
• fawn: people-pleasing, appeasement, loss of boundaries

From a nervous-system perspective, these patterns persist when defensive responses were interrupted, inhibited, or incomplete at the time of threat. When the body could not fully mobilize or resolve protection—due to overwhelm, powerlessness, or lack of support—the response may remain partially active in the system.

Somatic trauma therapy works at the level of state transition and response completion, rather than symptom control. The goal is not to eliminate fight, flight, freeze, or fawn, but to restore the nervous system’s ability to:

• detect early shifts toward activation or collapse
• allow defensive energy to organize without escalation
• complete protective responses in small, tolerable increments
• return to regulation after activation

As flexibility returns, survival states no longer need to stay chronically engaged. Activation can rise when appropriate, resolve, and settle again. Over time, baseline reactivity decreases—not because responses are suppressed, but because the system no longer needs to stay prepared for unresolved threat.

Trauma resolution is reflected less in the absence of response and more in the restoration of choice. The body regains its capacity to respond to present conditions rather than remaining organized around past danger.

References

• Levine, P. A. (1997). Waking the Tiger: Healing Trauma. North Atlantic Books.
• Porges, S. W. (2011). The Polyvagal Theory. W. W. Norton & Company.
• van der Kolk, B. A. (2014). The Body Keeps the Score. Viking.

From a nervous-system perspective, emotions are biological processes, not problems to eliminate. They are action-tendencies designed to move through the body and resolve when adequate safety and support are present.

In trauma, however, many emotions could not be fully experienced at the time they arose. Fear, grief, anger, shame, or longing may have been too overwhelming, unsafe, or unsupported. When this happens, the nervous system adapts by inhibiting or containing emotion to preserve functioning and connection.

Over time, this inhibition often shows up as symptoms rather than feelings. Chronic anxiety, panic, depression, numbness, or shutdown are not primary emotions themselves—they are protective regulatory states that limit access to deeper affect because, at one time, that affect was associated with danger, collapse, or loss of connection.

Somatic trauma therapy therefore works on two levels at once:

• Symptoms are stabilized, not forced open. Anxiety, panic, or depressive shutdown are regulated so the nervous system has enough capacity to remain present.
• Primary emotions are approached gradually. Core affect is invited in small, tolerable amounts so emotional responses can arise, move, and resolve within safety.

Clinically, emotional processing involves:

• sensing how emotion is expressed physiologically (tightening, heat, pressure, trembling, constriction)
• allowing affect to emerge incrementally rather than intensifying it
• maintaining embodied awareness as emotional waves rise and fall
• supporting the nervous system’s return to regulation after completion

This approach aligns with affective neuroscience and emotion-focused clinical models, which show that emotions resolve when they are fully experienced within safety, not suppressed or cognitively overridden.

As emotional integration progresses, symptoms often soften without deliberate effort. Anxiety often decreases as avoided emotions become safe to feel. Depression can lift when anger and grief can be felt safely. What changes is not only how one feels, but how the nervous system relates to feeling itself.

References

• Abbass, A. (2015). Reaching Through Resistance. Seven Leaves Press.
• Fosha, D. (2000). The Transforming Power of Affect. Basic Books.
• Greenberg, L. S. (2011). Emotion-Focused Therapy. American Psychological Association.
• Panksepp, J. (1998). Affective Neuroscience. Oxford University Press.

Traumatic memories differ from ordinary memories because they are often encoded as ongoing threat, not as events that are clearly over. When these memories are reactivated, the nervous system may respond as if danger is happening now—through hyperarousal, shutdown, or dissociation—rather than as something being remembered.

For this reason, memory processing is not a starting point in trauma therapy. It becomes appropriate only after sufficient stabilization, body awareness, and regulatory capacity are established. Without this foundation, revisiting traumatic material can intensify symptoms rather than resolve them.

Somatic processing approaches memory through the body first, rather than through detailed narrative recall. Clinically, this involves:

• working with small, tolerable fragments of memory rather than the whole event
• tracking physiological responses such as tightening, heat, trembling, pressure, or collapse
• staying with each wave of activation until it organizes and settles
• returning consistently to present-moment safety before approaching further material

This allows defensive responses that were interrupted at the time of trauma to complete, restoring agency and temporal accuracy—weight that was then; this is now

EMDR (Eye Movement Desensitization and Reprocessing) works through a complementary mechanism. By using bilateral stimulation—most commonly side-to-side eye movements—EMDR activates the brain’s natural information-processing systems, allowing traumatic memories to be re-stored with reduced emotional charge.

When EMDR is used within a somatic framework, it is carefully paced and guided by nervous-system signals rather than cognitive goals. Activation is monitored moment by moment, and processing is paused whenever regulation is compromised. This protects against overwhelm and supports durable integration.

In practice, EMDR is always embedded within somatic principles:

• regulation before reprocessingweight:
• tracking bodily responses alongside cognitive material
• prioritizing nervous-system safety over speed or intensity

Whether using somatic processing, EMDR, or a combination of both, the aim is the same: to help traumatic memories shift from ongoing physiological threat into experiences that are clearly recognized as past. As this occurs, triggers lose their charge, and the nervous system no longer needs to stay prepared for danger that has already passed.

References

• Ecker, B., Ticic, R., & Hulley, L. (2012). Unlocking the Emotional Brain. Routledge
• Levine, P. A. (2010). In an Unspoken Voice. North Atlantic Books.
• Shapiro, F. (2001). Eye Movement Desensitization and Reprocessing. Guilford Press.

Traumatic memories are not fixed records. Neuroscience shows that emotional learning remains modifiable under specific conditions through a process known as memory reconsolidation. This is not coping, suppression, or reframing—it is a biological updating of threat-based learning.

When a traumatic memory is activated, it briefly enters a labile state. During this window, if the nervous system encounters a clear mismatch between what it predicts and what actually happens, the original learning can be revised. For lasting change to occur, this mismatch must be registered at a physiological and emotional level, not merely understood intellectually.

Clinically, reconsolidation-relevant mismatches often involve experiences such as:

• safety where danger was expected
• agency where helplessness once dominated
• connection instead of isolation
• compassion where shame had been anticipated

Because these predictions are encoded subcortically, therapies that work directly with bodily state, affect, and autonomic regulation are especially effective. Somatic trauma therapy creates the conditions needed for reconsolidation by:

• reactivating emotional memory in small, tolerable doses
• maintaining nervous-system regulation during activation
• introducing lived experiences that contradict the original threat prediction
• allowing the nervous system to register the update as real

When reconsolidation occurs, change is often non-effortful. Emotional reactions soften without deliberate control. Triggers lose their charge. Protective patterns no longer need to fire automatically because the nervous system has updated its expectations about danger, connection, and self-protection.

This is why trauma resolution often feels less like “managing symptoms” and more like something letting go at the root. Neuroplastic change does not come from repetition alone—it comes from the right experience, delivered at the right time, in the right physiological state.

References

• Ecker, B., Ticic, R., & Hulley, L. (2012). Unlocking the Emotional Brain. 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.

Medicine-assisted therapy can be a supportive adjunct in trauma treatment, particularly for individuals with complex or treatment-resistant symptoms. These approaches are not stand-alone interventions. Their effectiveness depends on how carefully they are prepared for, guided, and integrated within an ongoing trauma-informed therapeutic process.

From a nervous-system perspective, certain medicines appear to temporarily reduce defensive organization, making specific experiences more accessible. Research suggests they may:

• decrease fear-based guarding and threat reactivity
• increase access to emotional and relational experience
• widen the window of tolerance
• enhance short-term neuroplastic learning conditions

For some individuals, this can allow experiences of safety, trust, self-compassion, or connection that were previously difficult to access through psychotherapy alone. However, these effects are state-dependent, not permanent by themselves.

Without adequate preparation and integration, openings created during medicine-assisted sessions may fade rather than consolidate. Insight alone does not reliably translate into lasting change unless the nervous system repeatedly learns—at a physiological level—that new states are safe and sustainable.

This is why medicine-assisted work is most effective when embedded within somatic therapy. A somatic framework supports this work by:

• establishing stabilization and regulatory capacity beforehand
• tracking nervous-system activation during sessions
• anchoring experiences in bodily awareness rather than narrative meaning alone
• supporting post-session integration so learning becomes embodied rather than episodic

Within this model, medicines are understood as catalysts, not cures. They may temporarily lower barriers to experience, but durable trauma resolution occurs only when new states of safety, agency, and connection are integrated into everyday nervous-system functioning over time.

When used judiciously and ethically, medicine-assisted therapy can accelerate access to therapeutic territory that might otherwise take much longer to reach—while somatic therapy ensures that what opens can be safely integrated, stabilized, and sustained.

References

• Dore, J., et al. (2019). Ketamine-assisted psychotherapy (KAP): Patient demographics, clinical data and outcomes. Journal of Psychoactive Drugs, 51(2), 189–198.
• Feder, A., et al. (2014). Efficacy of intravenous ketamine for treatment of chronic posttraumatic stress disorder: a randomized clinical trial. JAMA Psychiatry, 71(6), 681–688.
• Levine, P. A. (2010).In an Unspoken Voice North Atlantic Books.
• Mitchell, J. M., et al. (2023). MDMA-assisted therapy for moderate to severe PTSD: a randomized, placebo-controlled phase 3 trial. Nature Medicine, 29(10), 2473–2480.