To grasp the concept of making space, and to start on where to apply technique, it helps to begin with some very basic and simplified approaches to the same problem. We’ll start with a fictitious 2-dimensional, three-vertebrate creature in a fascial membrane that is distorted and wishing very much to be upright in the field of gravity. From there we’ll look at some different approaches and assessments of the problem from differing fields, again, quite overly simplified.
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With our more fluid understanding of the body, we might opt for unwinding the tissue - essentially - a fascial membrane, and making ‘space’ for a vertebral segment, creating a tendency for the vertebral segment to move into that space. This is followed by creating space for other adjoining segments in a comprehensive fashion.
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If we take that same basic idea and extrapolate, in simplistic 2-D, we might see our interventions - ie: where we are releasing tissue, to look something like this. Here we are looking at both how the vertebrae relate to each other as well as how they relate to a center line. Comprehensive treatment requires attention to each and every vertebrae. Bear in mind we are only looking at anterior to posterior shift patterns here in 2-D. A three dimensional model and a human body is more complex, but the same basic understanding of technique applies.
... At this point, we are now starting to put it all together into a methodology for unwinding the spine. ...If we understand our own innate tendencies in the spine and ribcage towards distortion and where those are more likely to happen, we may begin to understand the process of unwinding and decompressing in any human structure. Now that we are getting a deeper sense of where we will be applying technique, let's look deeper at unwinding. |
Unwinding demonstration with audible sounds
The sounds here were recorded with two microphones - a small lapel mic on the client and a shotgun mic on the camera. This clip was recorded from the first 20 minutes of a session. The above link will open a YouTube with the video. To enter the URL manually: https://youtu.be/pTpiew__mGg The explanation for the sounds went hand in hand with what was both theorized and observed in the process of compensation in the body - a local change in fluid pressure will be accompanied by fluid movements as well as change, via pressure, elsewhere -- an immediate compensatory response. |
While various pre-existing issues such as osteoporosis that are often present in the elder population are recognized as contributors to the issues and dangers inherent with surgery, a full explanation remains elusive.
I would however attribute the declining success of surgery with age much to the loss of space that occurs over time in the human body and in particular to the joint space of the human body. With a surgery, such as a fusion, essentially a joint space is jacked-open, resulting in a change in fluid pressure within the neural system, as well as a compensatory demand up the chain. So what is essentially a change in local neural pressure - at the site of the fusion, requires a balancing throughout the system. Whether this pressure and structural change in the chain equates to a successful outcome generally has a lot to do with whether the rest of the system is able to change and adapt with it. Naturally, with an older individual, the ability to structurally change is limited over time by loss of space. Thus, the ability to compensate to a surgery which changes both structure and local pressure requires the physical space to do so. In the older population, that space is generally lacking. And lacking everywhere. But while the space to compensate is lacking overall, the area that tends to first fixate in the human body and also remains the most resistant to change and compensation, is the middle and upper thoracic. So with surgeries such as lumbar fusions, the demand for compensatory change would be driven up the spine. In the already fixated thoracic, that action would create a considerable degree of strain directly at the cardiovascular level. It is certainly more than curious to note that heart attacks and are common occurrences following spinal surgeries: http://www.healthcentral.com/chronic-pain/c/240381/162219/surgeries-attacks/ http://www.medscape.com/viewarticle/807862 https://www.ncbi.nlm.nih.gov/pubmed/23637664 |
About twice a year I work with my 88 year old Dad. I do as much for him in the time we have. It is difficult to stay ahead of the 88 year old-curve and change is hard to come by, but we do get some. This picture is a before and after 4-5 very slow, gentle unwinding sessions in a week. He had suffered an ice fall over the winter. He remains active and quite mobile. Engineer, marine, wrestler, an early lumbar injury eventually became a laminectomy at L4/L5 in his late 40’s. In his mid-70’s he fell from a roof, the result a direct blow to the thoracic. Post fall, he seemed to be increasingly losing both height and space. His thoracic was compressing. Interventions focus there.
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In looking at primary rotational patterns I explored the possibility that the SI joint may twist along a vertical axis, followed by an additional twist at the coccyx. The possibility was encouraged by working with other supposedly fused joints -- the sutures of the cranium. My experience there told me that the joints historically-thought fused after a certain age were instead not completely fused but rather reflected a degree of mobility that typically decreased over time and trauma. Could the same apply to the sacrum? And if so, where would a twist likely occur? I began to separate my work to address the area at three levels - SI upper, SI lower, and Coccyx.
Theoretically, it was possible that the primary rotational pattern in the sacral area looked like: Vert Rotation L4 L L5 R SI upper L SI lower R Coccyx L Rotational patterns are difficult to see anywhere in the body and the sacral area is certainly no exception. I began working this way based on theory, not necessarily what I saw in the bone. The coccyx, typically when distorted, turned left. Most of the sacrum, generally turned left as well. But what if there were a sneaky right in there? Would that help explain the complex patterning I saw through the legs? If the rest of the body twisted, then why not the sacral area? In practice the strategy has seen a good deal of success. |