Aquabed Therapeutics- Integrative Healthcare

06/25/2026

Heart-to-Heart in CST
Written by Tad Wanveer, CST-D, July 2026

A Craniosacral Therapy (CST) session often begins with a quiet, heart-to-heart blending between client and practitioner. This gentle connection helps the client feel safe and met with genuine presence. It creates a therapeutic space shaped by:
• A felt sense of acceptance
• Kind, non-judgmental attention
• Openness to whatever is present
• A willingness of the practitioner to listen deeply and be guided by the client’s inner knowing.

Heart Rate Synchrony and Shared Connection
Recent research shows that when two people share emotional ease and engaged presence, their bodies settle into greater synchronization of their heart rates. In the context of the research, heart rate synchronization means that the heart rates rise and fall together, rather than one person’s rate changing to match the other’s. (He et al., 2026) Although only heart rate synchrony was measured and analyzed in the study, other forms of physiological synchrony are known, such as respiration, skin conductance, neural activity, and gait.

Within a CST session, the heart synchrony study suggests that an open, loving connection between practitioner and client supports a shared physiological experience—one in which heart rhythms move in relationship with one another, increasing and decreasing together.

The study also found that active, engaged group interactions were associated with the highest levels of heart rate synchrony. This may help explain one aspect of the effectiveness of multi-hands CST: the heart rates of the client and practitioners rise and fall together as an ensemble.

This synchronization reflects one form of physiological togetherness within the group. It may also point toward other levels of synchrony—whether in multi-hands or one-to-one sessions—that support and amplify the client’s self-corrective process.

A Gift from Dr. Upledger
In the last article Dr. Upledger wrote he offered as one of his final gifts this reminder: “If you put your hands on people to help them feel better, love has to go with those hands. That’s how you facilitate transformation.” (Upleger, 2009)

As we carry this gift within ourselves and offer it to clients through our hands and our state of being, we are invited to pause and listen deeply. What quiet meeting of hearts arises between practitioner and client? What tender movement of change awakens within the client, within us, and within the space we create together? And how might that transformation ripple outward, carrying both client and practitioner beyond what is known and into the unfolding mystery of what is present and still becoming?

References.
He, H., Christensen, J. H., Sørensen, A. J. M., & Konvalinka, I. (2026). Heart rate synchrony
as a marker of real-world social engagement. PNAS Nexus, 5(6), pgag181.
https://doi.org/10.1093/pnasnexus/pgag181
Upledger, John E., DO, OMM. 2009. "Farewell: Keep Sharing the Love." Massage Today, Vol.
9. Issue 11 https://www.iahe.com/storage/docs/articles/Farewell_Keep_Sharing_the_Love.pdf

04/18/2026

This study explores how CranioSacral Therapy (CST), combined with psychotherapy, can support patients with severe trauma and PTSD—helping reduce physical symptoms and enhance emotional healing.

CranioSacral Therapy: Supporting Trauma Recovery

📖 Learn more:
https://www.iahe.com/storage/docs/articles/Combining-psychotherapy-with-craniosacral-therapy-for-severe-traumatized-patients-1.pdf
or visit the Upledger.com Searchable Article Database

This study explores how CranioSacral Therapy (CST), combined with psychotherapy, can support patients with severe trauma and PTSD—helping reduce physical symptoms and enhance emotional healing.

02/12/2026

A beautiful illustration of the interactive mucous lining of the gut!

The Lining That Listens

If you’ve been following along as we explore the enteric nervous system and the intelligence of the abdomen, this is where those conversations begin to settle into the tissue. If we want to understand why abdominal work and nervous system regulation can create such meaningful change, we first have to understand the living interface that receives those signals and how it learns to repair.

Consider this. The gut lining isn’t a rigid barrier, but a living, responsive interface. It is just one cell thick in many places, constantly renewing itself and deciding what belongs and what doesn’t. It is part border guard, part diplomat, and an extension of the nerve system. Its job is not just digestion, but discernment as well. So let’s explore this incredible lining to understand it better.

At the surface of the intestines sit millions of finger-like villi and microscopic microvilli. Their role is absorption. They increase surface area so nutrients can move efficiently from food into the bloodstream. Then between these cells are tight junctions, dynamic protein gates that open and close in response to signals from the immune system, the microbiome, and the nervous system. When those signals are balanced, the barrier is selective and intelligent. When they are overwhelmed, the barrier becomes reactive or leaky.

Covering this lining is a delicate mucus layer, created by specialized goblet cells. This layer isn’t waste or residue; it’s an active, protective presence. It nourishes beneficial bacteria, cushions the lining from irritation, and maintains a healthy boundary between microbes and the cells beneath. When the body is under stress, inflamed, underslept, or underfed, this layer thins quickly. However, with consistency, nourishment, and rest, it slowly rebuilds.

One of the most hopeful things to understand about the gut lining is how quickly it can renew itself. The cells that make up the intestinal lining turn over every three to five days, meaning you’re not carrying the same lining you had last week. What takes longer to change are the signals those new cells receive. When inflammation, stress hormones, or immune activation stay high, the new tissue learns the same guarded patterns.

Think of it this way. The bricks regenerate quickly. The blueprint changes slowly.

When conditions are supportive, the lining heals in layers. First comes reduced irritation, followed by fewer sharp reactions to food: less urgency, bloating, and pain. Then your absorption improves, your energy stabilizes, and cravings soften. Over weeks to a few months, immune signaling calms and tolerance expands. For many people, meaningful gut barrier repair occurs in 4 to 12 weeks, provided the nervous system is also being addressed.

The gut lining is shaped as much by the nervous system as it is by food. When the body lives in chronic stress and sympathetic activation, the lining becomes more permeable and inflamed, staying on high alert. When parasympathetic tone is supported, blood flow improves, mucus production increases, and cellular repair becomes more efficient. This is why someone can eat “perfectly” and continue to struggle, while another person begins to heal simply by calming the system and eating in a way that feels steady and supportive.

At the same time, the gut lining is constantly educating the immune system. Nearly 70% of immune tissue resides along the gut, responding to signals it receives there. When the barrier is irritated or inconsistent, immune responses become reactive and widespread. As the lining heals and stabilizes, immune signaling often softens, which is why gut healing can ripple outward, affecting the skin, joints, mood, and pain patterns far beyond the abdomen.

As you take in everything we’ve explored here, it helps to remember that the gut lining doesn’t heal through pressure or perfection. It responds to the same signals we consistently circle back to: steadiness, regular nourishment, and enough rest to allow our body to repair.

02/22/2025

Babies in the womb can signal to their mothers for extra food using genes from their dads.

This fascinating mechanism, uncovered by scientists at Cambridge, involves a paternal gene that influences hormonal signals from the placenta. Essentially, the fetus uses this gene to manipulate the mother's body into releasing more nutrients, creating a "nutritional tug of war" where the mother must balance the needs of the growing fetus with her own health and future reproductive potential.

The placenta plays a key role in this process, acting as a communication hub between the fetus and the mother. By releasing specific hormones, the placenta signals the mother's body to prioritize the baby's growth, ensuring it receives sufficient glucose and fats.

This intricate system is orchestrated by imprinted genes, which can be switched on or off depending on whether they are inherited from the mother or the father. Paternal genes tend to promote fetal growth, while maternal genes tend to limit it, reflecting an evolutionary balance between the needs of the offspring and the mother's survival.

One such paternal gene, Igf2, provides instructions for making a protein similar to insulin that promotes fetal growth and development. When this gene is deleted in the placenta's signaling cells, the mother doesn't release enough nutrients into her circulation, resulting in growth restriction in the fetus.

This reveals the crucial role of Igf2 in regulating the mother's metabolism and ensuring adequate nutrient supply to the developing baby.

Learn more: https://www.cam.ac.uk/research/news/unborn-babies-use-greedy-gene-from-dads-to-remote-control-mums-into-feeding-them-extra-food

12/20/2023

https://www.sciencealert.com/brain-autopsies-suggest-a-new-culprit-behind-alzheimers-disease

Analysis of human brain tissue reveals differences in how immune cells behave in brains with Alzheimer's disease compared to healthy brains, indicating a potential new treatment target.

12/07/2023

Exciting data correlating glial cell activity and aggression.

"The fiber photometry method revealed that intracellular Ca2+ levels in cerebellar glia decreased or increased in conjunction with the superiority or inferiority of the fight, respectively. When the combat broke up, the researchers observed 4 to 6 Hz theta band local field potentials in the cerebellum, along with a sustained increase in Ca2+ levels in the glia."

This study highlights the role of the cerebellum, specifically the Bergmann glial cells in the cerebellar vermis, in regulating aggression.

11/11/2023